mhurhangee/ep-ind-claims huggingface dataset:
A busbar holder having a lower part and an upper part which is detachably connected to the lower part and between which, when they are connected to one another, at least one busbar passage is formed, the upper part and the lower part having sliding surfaces on mutually opposite support sides, along which they rest against each other and are displaceable relative to one another between an open position, in which the upper part can be lifted off the lower part, and a closed position, in which the upper part is fixed to the lower part via a tongue- and-groove joint, wherein a releasable latch fixes the upper part and the lower part in the closed position, and wherein the lower part has a mounting side opposite its support side for mounting the lower part on a base, characterised in that a screw channel extends between the support side and the mounting side, which is closed on the mounting side by a positioning pin projecting from the screw channel and protruding beyond the mounting side.
A controller for use in a system for automatic control of blood glucose level of a subject, the controller being operative to generate an insulin dose control signal based on the weight of the subject and time-varying glucose levels of the subject as represented by an actual glucose level signal over time, the actual glucose level signal being generated by a glucose sensor operative to continually sense a glucose level of the subject, the insulin dose control signal for controlling the delivery of doses of insulin to a subcutaneous space of the subject by a delivery device, the controller employing a control algorithm including: utilizing a subject model to explicitly model response of the subject to delivered doses of insulin and thereby generate, based on time-varying values of the actual glucose level signal and the insulin dose control signal, a predicted glucose level signal representing a predicted glucose level of the subject; and generating the insulin dose control signal based on the weight and a difference between the predicted glucose level signal and a setpoint signal representing desired future levels of the glucose level of the subject, characterized in that the insulin dose control signal is generated further based on local accumulation of insulin in the subcutaneous space of the subject. utilizing a subject model to explicitly model response of the subject to delivered doses of insulin and thereby generate, based on time-varying values of the actual glucose level signal and the insulin dose control signal, a predicted glucose level signal representing a predicted glucose level of the subject; and generating the insulin dose control signal based on the weight and a difference between the predicted glucose level signal and a setpoint signal representing desired future levels of the glucose level of the subject,
An apparatus to measure static pressure, the apparatus comprising: a static pressure tap (600, 700) including a channel (610, 710) defining an external opening, the channel extending to a pressure chamber comprising a pressure sensor; and porous material disposed proximate the external opening to reduce error in static pressure measurements; wherein: the porous material includes a membrane (602, 702) covering the opening of the channel (610, 710); and a porous material plug (604, 704) coupled to the membrane (602, 702), the porous material plug extending in the channel in a direction from the membrane towards the pressure chamber. a static pressure tap (600, 700) including a channel (610, 710) defining an external opening, the channel extending to a pressure chamber comprising a pressure sensor; and porous material disposed proximate the external opening to reduce error in static pressure measurements; wherein: the porous material includes a membrane (602, 702) covering the opening of the channel (610, 710); and a porous material plug (604, 704) coupled to the membrane (602, 702), the porous material plug extending in the channel in a direction from the membrane towards the pressure chamber. the porous material includes a membrane (602, 702) covering the opening of the channel (610, 710); and a porous material plug (604, 704) coupled to the membrane (602, 702), the porous material plug extending in the channel in a direction from the membrane towards the pressure chamber.
Joining element for trailing edges of aerodynamic profiles, insertable in the edge of a structure with an aerodynamic profile made up of a converging upper skin and a lower skin, wherein the joining element is made up of an elongated laminar body, having: - an upper face orientable towards an internal face of the upper skin; - a lower face orientable towards an internal face of the lower skin; - an external longitudinal edge; - an internal longitudinal edge; and - two side profiles; wherein the laminar body comprises: - on the upper face, consecutively from the internal longitudinal edge: - a first straight section delimited between the internal longitudinal edge and a first longitudinal projection; - a first skirt, delimited between the first longitudinal projection and a second longitudinal projection; and - a second skirt, delimited between the second longitudinal projection and the external longitudinal edge; and - on the lower face, consecutively from the internal longitudinal edge: - a second straight section delimited between the internal longitudinal edge and a third longitudinal projection; and - a third straight section delimited between the third longitudinal projection and the external longitudinal edge. - an upper face orientable towards an internal face of the upper skin; - a lower face orientable towards an internal face of the lower skin; - an external longitudinal edge; - an internal longitudinal edge; and - two side profiles; - on the upper face, consecutively from the internal longitudinal edge: - a first straight section delimited between the internal longitudinal edge and a first longitudinal projection; - a first skirt, delimited between the first longitudinal projection and a second longitudinal projection; and - a second skirt, delimited between the second longitudinal projection and the external longitudinal edge; and - a first straight section delimited between the internal longitudinal edge and a first longitudinal projection; - a first skirt, delimited between the first longitudinal projection and a second longitudinal projection; and - a second skirt, delimited between the second longitudinal projection and the external longitudinal edge; and - on the lower face, consecutively from the internal longitudinal edge: - a second straight section delimited between the internal longitudinal edge and a third longitudinal projection; and - a third straight section delimited between the third longitudinal projection and the external longitudinal edge. - a second straight section delimited between the internal longitudinal edge and a third longitudinal projection; and - a third straight section delimited between the third longitudinal projection and the external longitudinal edge.
A body of a portable electronic device, the body comprising: a conductive cover that includes one or more perforation apertures defined therein; a filler at least partially filling the one or more perforation apertures; and a near field coil proximate to the conductive cover and configured for radiation through the one or more perforation apertures, wherein the one or more perforation apertures have a generally truncated V-shape with tapered sidewalls resulting in an opening proximate to one surface of the conductive cover that is wider than the opening proximate to the other surface of the conductive cover. wherein the one or more perforation apertures are at least partially filled with an anodization layer, and wherein at least the portion of the one or more perforation apertures that opens to the exterior surface of the conductive cover is filled with the anodization layer, such that the anodization layer continuously covers the body of the portable electronic device. a conductive cover that includes one or more perforation apertures defined therein; a filler at least partially filling the one or more perforation apertures; and a near field coil proximate to the conductive cover and configured for radiation through the one or more perforation apertures, wherein the one or more perforation apertures have a generally truncated V-shape with tapered sidewalls resulting in an opening proximate to one surface of the conductive cover that is wider than the opening proximate to the other surface of the conductive cover. wherein the one or more perforation apertures are at least partially filled with an anodization layer, and wherein at least the portion of the one or more perforation apertures that opens to the exterior surface of the conductive cover is filled with the anodization layer, such that the anodization layer continuously covers the body of the portable electronic device.
A nanoparticle comprising: a semiconductor nanocrystal wherein the semiconductor nanocrystal is a concentration-gradient quantum dot comprising a core and a shell surrounding the core, and wherein the nanocrystal comprises at least a first semiconductor having a concentration that decreases in a direction that moves from the core outward to the shell and a second semiconductor having a concentration that increases in the direction that moves from the core outward to the shell; a first organic coating layer comprising one or more lipophilic carboxylic acid ligand having a polar head and a non-polar tail, with the polar head contacting the nanocrystal; a second organic coating comprising an organic material having a polar head and a non-polar tail, wherein the non-polar tail of the second organic coating is intercalated with the non-polar tail of the first coating layer, wherein the polar head of the organic material in the second coating layer is acrylate, methacrylate, cyanoacrylate, anhydride, alkyl, epoxy, isocyanate, acetate, phenolic group, carboxyl, thioester, amide, sulfhydryl, or hydroxyl. a semiconductor nanocrystal wherein the semiconductor nanocrystal is a concentration-gradient quantum dot comprising a core and a shell surrounding the core, and wherein the nanocrystal comprises at least a first semiconductor having a concentration that decreases in a direction that moves from the core outward to the shell and a second semiconductor having a concentration that increases in the direction that moves from the core outward to the shell; a first organic coating layer comprising one or more lipophilic carboxylic acid ligand having a polar head and a non-polar tail, with the polar head contacting the nanocrystal; a second organic coating comprising an organic material having a polar head and a non-polar tail, wherein the non-polar tail of the second organic coating is intercalated with the non-polar tail of the first coating layer, wherein the polar head of the organic material in the second coating layer is acrylate, methacrylate, cyanoacrylate, anhydride, alkyl, epoxy, isocyanate, acetate, phenolic group, carboxyl, thioester, amide, sulfhydryl, or hydroxyl.
A phase frequency detector, comprising: (a). a first signal receiving means including a first input terminal to receive a first input signal and a second input terminal to receive a second input signal; (b). a second signal receiving means cross-coupled said first input terminal to receive said first input signal; and said second input terminal to receive said second input signal; (c). a first node connected for charging or discharging depending on the signals received at said input terminals (112, 114); (d). a second node connected for charging or discharging depending on the signals received at said input terminals (112, 114); (e). a first control logic circuit for receiving a control signal output by said first node and output a first signal to an output terminal; and (f). a second control logic circuit for receiving a control signal output by said second node and output a second signal to an output terminal; (g). a first feedback means comprising a first feedback transistor for receiving signals from said output terminal of said second control logic circuit; (h). a second feedback means comprising a second feedback transistor for receiving signals from said output terminal of said first control logic circuit; characterized in that said first and second control logic circuits (140, 170) each comprises a pair of transistors connected in series, and said pair of transistors is connected at their gates to said node (136, 166) and is connected at their joining point to said output terminal (134, 146). (a). a first signal receiving means including a first input terminal to receive a first input signal and a second input terminal to receive a second input signal; (b). a second signal receiving means cross-coupled said first input terminal to receive said first input signal; and said second input terminal to receive said second input signal; (c). a first node connected for charging or discharging depending on the signals received at said input terminals (112, 114); (d). a second node connected for charging or discharging depending on the signals received at said input terminals (112, 114); (e). a first control logic circuit for receiving a control signal output by said first node and output a first signal to an output terminal; and (f). a second control logic circuit for receiving a control signal output by said second node and output a second signal to an output terminal; (g). a first feedback means comprising a first feedback transistor for receiving signals from said output terminal of said second control logic circuit; (h). a second feedback means comprising a second feedback transistor for receiving signals from said output terminal of said first control logic circuit;
Method for the purification of 2,5-furandicarboxylic acid or a salt thereof, comprising providing impure 2,5-furandicarboxylic acid or a salt thereof and crystallization of a 2,5-furandicarboxylic acid mono salt.
Horological movement having a regulating member (2, 4) that exhibits a periodic movement, which is maintained from a mechanical energy source and sets the pace of the movements of a seconds arbour intended to carry a member for displaying seconds, and a control mechanism designed to immobilize said regulating member (2, 4) and to place said seconds arbour in a predefined angular position substantially simultaneously, in response to a particular action by a user, said control mechanism comprising a movable control lever that has a first arm intended to interact with said regulating member (2, 4) and a second arm intended to interact with a positioning member for said seconds arbour, characterized in that said first arm carries a locking surface designed to be able to be positioned in direct contact with said regulating member (2, 4) or on a component secured to said regulating member (2, 4) to immobilize the latter in response to said particular action.
A method for downloading data blocks of a resource file, the method comprising: Receiving, by a target peer, an instruction of downloading a target resource file, and obtaining, by the target peer, a standard file size of the target resource file based on a URL of the target resource file from a target CDN server; according to the URL and the standard file size of the target resource file, generating, by the target peer, a file-specific identification of the target resource file; sending, by the target peer, a peer list acquisition request carrying the file-specific identification of the target resource file to a tracker server; and according to peer information of a target super peer contained in a peer list fed back from the tracker server, downloading, by the target peer, data blocks of the target resource file corresponding to the file-specific identification from the target super peer. Receiving, by a target peer, an instruction of downloading a target resource file, and obtaining, by the target peer, a standard file size of the target resource file based on a URL of the target resource file from a target CDN server; according to the URL and the standard file size of the target resource file, generating, by the target peer, a file-specific identification of the target resource file; sending, by the target peer, a peer list acquisition request carrying the file-specific identification of the target resource file to a tracker server; and according to peer information of a target super peer contained in a peer list fed back from the tracker server, downloading, by the target peer, data blocks of the target resource file corresponding to the file-specific identification from the target super peer.
A method for producing a polyester foam comprising: providing a low intrinsic viscosity raw material, the low intrinsic viscosity raw material includes between 25% to 100% of a post consumer polyester, and the post consumer polyester has an intrinsic viscosity of less than 0.8 dl/g as measured by ASTM method D-4603; increasing the intrinsic viscosity of the low intrinsic viscosity raw material via a de-condensation reaction configured to support foaming, including increasing a molecular weight of the low intrinsic viscosity raw material by feeding the low intrinsic viscosity raw material into a solid-state reactor or by a melt-phase de-condensation reaction with vacuum using a melt-phase reactor, wherein the intrinsic viscosity of the low intrinsic viscosity raw material is increased to 1.1 dl/g or greater; creating a starting formulation including the low intrinsic viscosity raw material with the increased intrinsic viscosity; foaming the starting formulation to create the polyester foam; wherein, the polyester foam produced has a density of less than 0.65 g/cc. providing a low intrinsic viscosity raw material, the low intrinsic viscosity raw material includes between 25% to 100% of a post consumer polyester, and the post consumer polyester has an intrinsic viscosity of less than 0.8 dl/g as measured by ASTM method D-4603; increasing the intrinsic viscosity of the low intrinsic viscosity raw material via a de-condensation reaction configured to support foaming, including increasing a molecular weight of the low intrinsic viscosity raw material by feeding the low intrinsic viscosity raw material into a solid-state reactor or by a melt-phase de-condensation reaction with vacuum using a melt-phase reactor, wherein the intrinsic viscosity of the low intrinsic viscosity raw material is increased to 1.1 dl/g or greater; creating a starting formulation including the low intrinsic viscosity raw material with the increased intrinsic viscosity; foaming the starting formulation to create the polyester foam; wherein, the polyester foam produced has a density of less than 0.65 g/cc.
A mid-sole for shoes, which comprises a body on which there is a lower portion for joining to a tread and an upper portion for supporting an insole,wherein said upper portion comprises a plurality of elastically compressible protrusions (14, 14a, 14b, 14c, 14d, 14e) that protrude toward the outside of said body from a bottom surface of said upper portion wherein each protrusion (14, 14a, 14b, 14c, 14d, 14e) is constituted by a stepped frustum-shaped raised portion wherein each protrusion (14, 14a, 14b, 14c, 14d, 14e) has an end surface that is flat, so as to define with the other end surfaces of the other protrusions an external surface for resting an insole that has an anatomical shape, wherein the height of each protrusion (14, 14a, 14b, 14c, 14d, 14e) varies according to an anatomical shape of the bottom surface in the region of the mid-sole of which the protrusion is a part.
A kit for preparing a custom-made test strip for detecting at least two analytes, the kit comprising at least one solid support unit strip and at least one holder (2, 21), wherein the SSU strip comprises multiple, tandemly arranged solid support units, wherein each solid support unit is identical within the SSU strip and each solid support unit is detachable from the SSU strip, and wherein the holder (2, 21) comprises a body having a generally longitudinal shape, wherein said body is provided with at least two receiving regions (220, 200', 260, 260'), wherein each receiving region (220, 220', 260, 260') is configured to receive a solid support unit, the receiving regions are arranged in a longitudinal direction along the body, the holder further comprises a sample chamber which is spatially separated from said receiving regions and dimensioned to hold a sample by means of capillarity, and wherein (a) each receiving region comprises a compartment (220, 220') in the body of the holder having a receptive opening for insertably receiving the solid support unit, and wherein the compartment is configured to mechanically secure the solid support unit, or (b) each receiving region comprises an adhesive bonding surface (260, 260') on the body of the holder configured to bond adhesively with the solid support unit.
A carrying case for carrying valuable items including laptop computers and the like having side surfaces, a front face and a back face, a thickness dimension extending between the front face and the back face, a maximum dimension extending generally at right angles to the thickness dimension, and the side surfaces bounding the maximum dimension, the carrying case including a main packing compartment for holding the laptop computer, the main compartment sized to receive a laptop computer and having a spring encased within foam to act as a shock absorption device, said spring having undulations and characterized in that said foam includes a plurality of undulations that encase and conform to the undulations of the spring.
A preparation comprising a combination of: 1) a protein material, 2) a fish oil, and 3) a non β-oxidizable fatty acid entity represented by the general formula R"-COO-(CH 2) 2n+1 -X-R', wherein X is a sulphur atom, a selenium atom, an oxygen atom, a SO group or a SO 2 group; n is an integer of 0 to 11; and R' is a linear or branched alkyl group, saturated or unsaturated, optionally substituted, wherein the main chain of said R' contains from 13 to 23 carbon atoms and optionally one or more heterogroups selected from the group comprising an oxygen atom, a sulphur atom, a selenium atom, an oxygen atom, a SO group and a SO 2 group; and R" is a hydrogen atom or an alkyl group containing from 1 to 4 carbon atoms, wherein the protein material is fish protein hydrolysate for use in a human for the prevention and/or treatment of hypercholesterolemia and conditions negatively effected by high cholesterol levels, insulin resistance, obesity, diabetes, fatty liver, dyslipidemia, atherosclerosis, coronary heart disease, thrombosis, stenosis, secondary stenosis, myocardial infarction, stroke, endothelial dysfunction, procoagulant state, polycystic ovary syndrome and the metabolic syndrome. 1) a protein material, 2) a fish oil, and 3) a non β-oxidizable fatty acid entity represented by the general formula R"-COO-(CH 2) 2n+1 -X-R', wherein X is a sulphur atom, a selenium atom, an oxygen atom, a SO group or a SO 2 group; n is an integer of 0 to 11; and R' is a linear or branched alkyl group, saturated or unsaturated, optionally substituted, wherein the main chain of said R' contains from 13 to 23 carbon atoms and optionally one or more heterogroups selected from the group comprising an oxygen atom, a sulphur atom, a selenium atom, an oxygen atom, a SO group and a SO 2 group; and R" is a hydrogen atom or an alkyl group containing from 1 to 4 carbon atoms, wherein the protein material is fish protein hydrolysate for use in a human for the prevention and/or treatment of hypercholesterolemia and conditions negatively effected by high cholesterol levels, insulin resistance, obesity, diabetes, fatty liver, dyslipidemia, atherosclerosis, coronary heart disease, thrombosis, stenosis, secondary stenosis, myocardial infarction, stroke, endothelial dysfunction, procoagulant state, polycystic ovary syndrome and the metabolic syndrome.