Received: from [185.207.39.233] (port=58751 helo=ute.survivalwatch1.icu) by stodi.digitalkingdom.org with esmtp (Exim 4.91) (envelope-from <10074-7931-287990-2709-lojban=lojban.org@mail.survivalwatch1.icu>) id 1gIiXZ-0001RN-VR for lojban@lojban.org; Fri, 02 Nov 2018 16:07:47 -0700 DKIM-Signature: v=1; a=rsa-sha1; c=relaxed/relaxed; s=k1; d=survivalwatch1.icu; h=Mime-Version:Content-Type:Date:From:Reply-To:Subject:To:Message-ID; i=enlightenment@survivalwatch1.icu; bh=a4LJQBix0kusDYFo6NPHbZJGcuk=; b=W/Qj6J8Jw/8vO3imKhrAKRSbjzbEkGf6rS97bffusKdkCqRQGZJ/D3zvhBSYN2wkpBiTwXqCIpep 7SAGzGcLNL2yZT5bZjFIsAfEOGt52kedG975lNlVHkcJCXaz0DFCARwyeSx5pGh63oL1z9m++vnY FxLkA+NMKO0J6cglAeQ= DomainKey-Signature: a=rsa-sha1; c=nofws; q=dns; s=k1; d=survivalwatch1.icu; b=FQzMBMmD1fisgu/hR5yR2WAdfkAj7F3idCoA9RSQ1/T4gd8rCLAkkt+U3HvH/7/DsDicVHp0JGAn bgJ4/yAEH2IeUMGHVZG2izmgQAXbchGb14zhmSs9+01EjranSIKQUrx9vyxjPwuADPK1tdEQ1H3Q H73b1eznDEwbGsuPzBQ=; Mime-Version: 1.0 Content-Type: multipart/alternative; boundary="ea56eded0706130de06461c0a0f5e710_1efb_464f6" Date: Sat, 3 Nov 2018 00:07:38 +0100 From: "Tactical-Survival Watch" Reply-To: "Tactical-Survival Watch" Subject: New 6-in-1 Tactical-Survival Watch Might Be The Last Watch You Ever Buy To: Message-ID: X-Spam-Score: 1.5 (+) X-Spam_score: 1.5 X-Spam_score_int: 15 X-Spam_bar: + X-Spam-Report: Spam detection software, running on the system "stodi.digitalkingdom.org", has NOT identified this incoming email as spam. The original message has been attached to this so you can view it or label similar future email. If you have any questions, see the administrator of that system for details. Content preview: New 6-in-1 Tactical-Survival Watch Might Be The Last Watch You Ever Buy http://survivalwatch1.icu/clk.2-275a-1efb-464f6-a95-13f8-0300-815d9b41 http://survivalwatch1.icu/clk.14-275a-1efb-464f6-a95-13f8-0300-0bed1d9c Content analysis details: (1.5 points, 5.0 required) pts rule name description ---- ---------------------- -------------------------------------------------- -0.0 SPF_PASS SPF: sender matches SPF record 0.0 HTML_FONT_LOW_CONTRAST BODY: HTML font color similar or identical to background 0.8 BAYES_50 BODY: Bayes spam probability is 40 to 60% [score: 0.5000] 0.0 HTML_MESSAGE BODY: HTML included in message -0.1 DKIM_VALID Message has at least one valid DKIM or DK signature -0.1 DKIM_VALID_AU Message has a valid DKIM or DK signature from author's domain 0.1 DKIM_SIGNED Message has a DKIM or DK signature, not necessarily valid 0.8 RDNS_NONE Delivered to internal network by a host with no rDNS --ea56eded0706130de06461c0a0f5e710_1efb_464f6 Content-Type: text/plain; Content-Transfer-Encoding: 8bit New 6-in-1 Tactical-Survival Watch Might Be The Last Watch You Ever Buy http://survivalwatch1.icu/clk.2-275a-1efb-464f6-a95-13f8-0300-815d9b41 http://survivalwatch1.icu/clk.14-275a-1efb-464f6-a95-13f8-0300-0bed1d9c Many flowering plants reflect as much light as possible within the range of visible wavelengths of the pollinator the plant intends to attract. Flowers that reflect the full range of visible light are generally perceived as white by a human observer. An important feature of white flowers is that they reflect equally across the visible spectrum. While many flowering plants use white to attract pollinators, the use of color is also widespread (even within the same species). Color allows a flowering plant to be more specific about the pollinator it seeks to attract. The color model used by human color reproduction technology (CMYK) relies on the modulation of pigments that divide the spectrum into broad areas of absorption. Flowering plants by contrast are able to shift the transition point wavelength between absorption and reflection. If it is assumed that the visual systems of most pollinators view the visible spectrum as circular then it may be said that flowering plants produce color by absorbing the light in one region of the spectrum and reflecting the light in the other region. With CMYK, color is produced as a function of the amplitude of the broad regions of absorption. Flowering plants by contrast produce color by modifying the frequency (or rather wavelength) of the light reflected. Most flowers absorb light in the blue to yellow region of the spectrum and reflect light from the green to red region of the spectrum. For many species of flowering plant, it is the transition point that characterizes the color that they produce. Color may be modulated by shifting the transition point between absorption and reflection and in this way a flowering plant may specify which pollinator it seeks to attract. Some flowering plants also have a limited ability to modulate areas of absorption. This is typically not as precise as control over wavelength. Humans observers will perceive this as degrees of saturation (the amount of white in the color). --ea56eded0706130de06461c0a0f5e710_1efb_464f6 Content-Type: text/html; Content-Transfer-Encoding: 8bit Newsletter

Many flowering plants reflect as much light as possible within the range of visible wavelengths of the pollinator the plant intends to attract. Flowers that reflect the full range of visible light are generally perceived as white by a human observer. An important feature of white flowers is that they reflect equally across the visible spectrum. While many flowering plants use white to attract pollinators, the use of color is also widespread (even within the same species). Color allows a flowering plant to be more specific about the pollinator it seeks to attract. The color model used by human color reproduction technology (CMYK) relies on the modulation of pigments that divide the spectrum into broad areas of absorption. Flowering plants by contrast are able to shift the transition point wavelength between absorption and reflection. If it is assumed that the visual systems of most pollinators view the visible spectrum as circular then it may be said that flowering plants produce color by absorbing the light in one region of the spectrum and reflecting the light in the other region. With CMYK, color is produced as a function of the amplitude of the broad regions of absorption. Flowering plants by contrast produce color by modifying the frequency (or rather wavelength) of the light reflected. Most flowers absorb light in the blue to yellow region of the spectrum and reflect light from the green to red region of the spectrum. For many species of flowering plant, it is the transition point that characterizes the color that they produce. Color may be modulated by shifting the transition point between absorption and reflection and in this way a flowering plant may specify which pollinator it seeks to attract. Some flowering plants also have a limited ability to modulate areas of absorption. This is typically not as precise as control over wavelength. Humans observers will perceive this as







degrees of saturation (the amount of white in the color).

 

  UN_sub
  --ea56eded0706130de06461c0a0f5e710_1efb_464f6--