mhurhangee/ep-ind-claims huggingface dataset:
An asphalt finisher comprising: a tractor; a hopper, provided on a front side of the tractor, and configured to receive a pavement material; a conveyor configured to supply the pavement material in the hopper to a rear side of the tractor; a screw configured to place and spread the pavement material supplied by the conveyor on a rear side of the tractor; a screed configured to lay and spread the pavement material placed and spread by the screw on a rear side of the screw; a distance measuring device configured to include a region including a new road surface on which the pavement material is placed and spread by the screed, and a planimetric feature outside the new pavement in the width direction, that is used as a reference for a height of the new road surface, within a measuring range; and a controller configured to compute irregularities on the new road surface with respect to the reference height determined by the outside planimetric feature, based on an output of the distance measuring device. a tractor; a hopper, provided on a front side of the tractor, and configured to receive a pavement material; a conveyor configured to supply the pavement material in the hopper to a rear side of the tractor; a screw configured to place and spread the pavement material supplied by the conveyor on a rear side of the tractor; a screed configured to lay and spread the pavement material placed and spread by the screw on a rear side of the screw; a distance measuring device configured to include a region including a new road surface on which the pavement material is placed and spread by the screed, and a planimetric feature outside the new pavement in the width direction, that is used as a reference for a height of the new road surface, within a measuring range; and a controller configured to compute irregularities on the new road surface with respect to the reference height determined by the outside planimetric feature, based on an output of the distance measuring device.
Safety device for a pre-filled syringe comprising - a needle shield (1.1) adapted to cover an injection needle (2.1) of the pre-filled syringe before and after an injection, - a support body (1.2) with at least one pivoting arm (1.2.2) adapted to engage a barrel collar (2.2.1) of the pre-filled syringe and - an outer body (1.3) with a first inner sleeve (1.3.5) comprising a bevelled section (1.3.7), the outer body (1.3) arranged to be releasably mounted to the pre-filled syringe, so that the pre-filled syringe may be translated in a distal direction by manually translating the outer body (1.3) with respect to the needle shield (1.1) in the distal direction, - a compression spring (1.4) arranged within the safety device that biases the needle shield (1.1) and the outer body (1.3) away from each other, wherein the needle shield (1.1), the support body (1.2) and the outer body (1.3) are arranged so as to telescope with respect to each other such that the support body (1.2) can be substantially received within the outer body (1.3) and the needle shield (1.1) can be substantially received within the hollow outer body (1.3), and wherein the bevelled section (1.3.7) is arranged to abut against the pivoting arm (1.2.2) connected to the support body (1.2) by a living hinge (1.2.3) to deflect the pivoting arm (1.2.2) radially inwards and latch the pivoting arm (1.2.2) to the barrel collar (2.2.1) to permanently lock the pre-filled syringe to the support body (1.2) after the dose of the medicament has been expelled, wherein one or more third clips (1.3.8) on the outer body (1.3) are arranged to latch into one or more second notches (1.2.5) in the support body (1.2) to lock the outer body (1.3) and the support body (1.2) together and hence prevent a translation of the outer body (1.3) relative to the support body (1.2) in the distal direction such that upon removal of the injection device from an injection site, the outer body (1.3) and the pre-filled syringe connected thereto is driven in the proximal direction towards a safe position wherein the pre-filled syringe is retracted within the safety device by the energized compression spring (1.4). - a needle shield (1.1) adapted to cover an injection needle (2.1) of the pre-filled syringe before and after an injection, - a support body (1.2) with at least one pivoting arm (1.2.2) adapted to engage a barrel collar (2.2.1) of the pre-filled syringe and - an outer body (1.3) with a first inner sleeve (1.3.5) comprising a bevelled section (1.3.7), the outer body (1.3) arranged to be releasably mounted to the pre-filled syringe, so that the pre-filled syringe may be translated in a distal direction by manually translating the outer body (1.3) with respect to the needle shield (1.1) in the distal direction, - a compression spring (1.4) arranged within the safety device that biases the needle shield (1.1) and the outer body (1.3) away from each other,
Catalyst component for olefin polymerization, which is prepared by a process comprising the steps of: dissolving a magnesium halide in a solvent system comprising an organic epoxy compound and an organo phosphorus compound, to form a homogenous solution; contacting and reacting said solution with at least one titanium compound of the general formula Ti(OR 3) 4-m X m, in which R 3 is a C 1 -C 14 aliphatic hydrocarbyl group, X is selected from the group consisting of F, Cl, Br and mixtures thereof, and m is an integer of from 1 to 4, in the presence of an inorganic oxide, to precipitate a solid titanium-containing catalyst component; with at least one inner electron-donor compound being introduced in any of said steps. dissolving a magnesium halide in a solvent system comprising an organic epoxy compound and an organo phosphorus compound, to form a homogenous solution; contacting and reacting said solution with at least one titanium compound of the general formula Ti(OR 3) 4-m X m, in which R 3 is a C 1 -C 14 aliphatic hydrocarbyl group, X is selected from the group consisting of F, Cl, Br and mixtures thereof, and m is an integer of from 1 to 4, in the presence of an inorganic oxide, to precipitate a solid titanium-containing catalyst component;
Rack with a mouting bay to accommodate servers, wherein the mouting bay defines two opposing internal areas (4a, 4b) which are disposed parallel to an insertion direction of the servers and form internal walls, wherein the internal walls are divided into a multiplicity of slots, and wherein one or more data lines for the data connection of servers are configured in the rack, characterized in that the data lines comprise optical data lines, wherein, on at least one of the two internal areas (4a, 4b) of the mouting bay, an end section of a data line with a data interface is disposed on each slot in such a way that a contactless optical data connection to a further data interface on a corresponding server is enabled.
A method for preparing a protected peptide for use in the preparation of AMG 416 as set forth in SEQ ID NO: 1: said method comprising: cleaving a resin-bound peptide from the solid support, said resin-bound peptide having a structure selected from the group consisting of Fmoc-D-Cys(Trt)-D-Ala-D-Arg(Pbf) -D-Arg(Pbf) -D-Arg(Pbf)-D-Ala-D-Arg(Pbf)-[Resin] (SEQ ID NO:2) and Ac-D-Cys(Trt)-D-Ala-D-Arg(Pbf)-D-Arg(Pbf)-D-Arg(Pbf)-D-Ala-D-Arg(Pbf)-[Resin] (SEQ ID NO:3); and activating the side chain of the D-Cys residue. cleaving a resin-bound peptide from the solid support, said resin-bound peptide having a structure selected from the group consisting of Fmoc-D-Cys(Trt)-D-Ala-D-Arg(Pbf) -D-Arg(Pbf) -D-Arg(Pbf)-D-Ala-D-Arg(Pbf)-[Resin] (SEQ ID NO:2) and Ac-D-Cys(Trt)-D-Ala-D-Arg(Pbf)-D-Arg(Pbf)-D-Arg(Pbf)-D-Ala-D-Arg(Pbf)-[Resin] (SEQ ID NO:3); and activating the side chain of the D-Cys residue.
Tumble dryer with a control facility, a drum for receiving items of laundry, in which at least one laundry agitator (5, 22) is arranged, wherein a sensor arrangement with at least two sensors (24, 25, 26, 27, 31), an autonomous energy supply unit and an interface for wireless communication are located in the laundry agitator (5, 22), and at least one evaluation unit for sensor signals of the sensor arrangement, wherein control facility and sensor arrangement are configured to communicate wirelessly with one another, and wherein an acceleration sensor and at least one electrode of a conductivity sensor (24, 25) and/or an air humidity sensor are arranged in the laundry agitator (5, 22), characterised in that the control facility is configured, on a rotation of the drum, to determine a position of the laundry agitator (5, 22), so that the sensor signals measured by the conductivity sensor (24, 25) and/or the air humidity sensor can be assigned to the position of the laundry agitator (5, 22), wherein at least two sensors (24, 25, 26, 27) of the sensor arrangement are based on the same measuring principle and are arranged along the laundry agitator (5, 22), and wherein the measuring principle is selected according to the physical properties of temperature, air humidity, pressure and/or conductivity, so that at least two sensors are respectively a temperature sensor, air humidity sensor, pressure sensor, conductivity sensor or any combination thereof.
A cabinet illuminator comprising: an elongate body; engagement means for engaging a display cabinet shelf across its front edge; a plurality of light emitting diodes mounted on inner surfaces of said body for product illumination; wherein the elongate body comprises a heat transfer portion for conduction of heat from the light emitting diodes to an outer surface of the body; characterized in that, the body further comprises a label holder for supporting a label across the outer surface; and the illuminator further comprises a light guide for direction of light from behind the diodes to the outer surface, and the diodes are mounted on a transparent substrate. an elongate body; engagement means for engaging a display cabinet shelf across its front edge; a plurality of light emitting diodes mounted on inner surfaces of said body for product illumination; wherein the elongate body comprises a heat transfer portion for conduction of heat from the light emitting diodes to an outer surface of the body; characterized in that, the body further comprises a label holder for supporting a label across the outer surface; and the illuminator further comprises a light guide for direction of light from behind the diodes to the outer surface, and the diodes are mounted on a transparent substrate.
Massage head comprising a housing, from the lower part of which there emerge two active members, of which the free lower edge, opposite to the housing, is intended to be in contact with the skin of a patient, at least one of said active members consisting of a clapper (3, 4) articulated within the housing and given a pivoting movement so as to cause the free lower edges of said active members to move closer together and further apart in a direction of relative movement, the relative movement of said at least one clapper with respect to the housing being brought about by means of a rotary cam formed within the housing, the cam comprising at least one camway (13, 13') having undulations, characterized: - in that the axis of rotation of the cam is oriented substantially parallel to the direction of movement of said at least one clapper (3, 4); - in that the camway (13, 13') is formed on the periphery of said cam; - and in that said at least one clapper (3, 4) is mounted on a support (9, 10) of which one of the ends is articulated in the housing, said support being equipped with a member able to collaborate with the camway (13, 13'). - in that the axis of rotation of the cam is oriented substantially parallel to the direction of movement of said at least one clapper (3, 4); - in that the camway (13, 13') is formed on the periphery of said cam; - and in that said at least one clapper (3, 4) is mounted on a support (9, 10) of which one of the ends is articulated in the housing, said support being equipped with a member able to collaborate with the camway (13, 13').
Rod system (14; 114; 214) for supporting a collapsible outdoor construction, in particular a tent rod system, comprising a plurality of rod segments (18-1,..., 18-n; 118; 218) that can each be joined together at the ends thereof, a continuous, flexible securing means (22; 222) which is guided though the rod segments such that the rod segments are threaded on the securing means (22; 222) in a row, and at least one flexible coupling means by which two adjacent rod segments are coupled, the coupling means (30; 130) being rigidly connected to a first (18-2; 118-2) of the two adjacent rod segments and being axially slidably coupled to a second (18-3; 118-3) of the two rod segments, and the flexible coupling means by means of which the adjacent rod segments (18-2, 18-3) are coupled being provided in addition to the securing means, characterised in that the coupling means (30; 130; 230) restricts an axial separating movement of the two rod segments to a predetermined maximum distance of the two rod segments.
An implantable medical device comprising: a porous fibrous structure configured for sealing a wound, the fibrous structure formed from at least one randomly oriented fiber, the randomly oriented fiber comprising at least one polymer, and the fibrous structure having a porosity ranging from 65 to 98%; wherein the porous fibrous structure is cut from a mat of melt extruded, crimped staple fibres that have been carded and needle punched. a porous fibrous structure configured for sealing a wound, the fibrous structure formed from at least one randomly oriented fiber, the randomly oriented fiber comprising at least one polymer, and the fibrous structure having a porosity ranging from 65 to 98%; wherein the porous fibrous structure is cut from a mat of melt extruded, crimped staple fibres that have been carded and needle punched.
A processing entity configured to generate a model for estimating scene illumination colour for a source image captured by a camera, by the steps of: acquiring a set of images, each image having been captured by a respective camera, the set of images as a whole comprising images captured by multiple cameras; forming a set of tasks by assigning each image of the set of images to a respective task such that images in the same task have in common that a property of those images lies in a predetermined range; training parameters of the model by repeatedly: selecting at least one of the tasks, forming an interim set of model parameters in dependence on a first subset of the images of that task, estimating the quality of the interim set of model parameters against a second subset of the images of that task and updating the parameters of the model in dependence on the interim set of parameters and the estimated quality, wherein the step of training is performed using few-shot learning. acquiring a set of images, each image having been captured by a respective camera, the set of images as a whole comprising images captured by multiple cameras; forming a set of tasks by assigning each image of the set of images to a respective task such that images in the same task have in common that a property of those images lies in a predetermined range; training parameters of the model by repeatedly: selecting at least one of the tasks, forming an interim set of model parameters in dependence on a first subset of the images of that task, estimating the quality of the interim set of model parameters against a second subset of the images of that task and updating the parameters of the model in dependence on the interim set of parameters and the estimated quality, wherein the step of training is performed using few-shot learning.
A circuit to provide a direct current output voltage, comprising: a first bias circuit (1402, 1530) to supply a gate to source bias (1403, 1532), which is independent of a direct current output voltage; a first voltage multiplier circuit (1410, 1540) coupled to the first bias circuit (1402, 1530), the voltage multiplier circuit to generate the DC output voltage; characterized by the voltage multiplier circuit (1410, 1540) having at least one n-channel metal-oxide-semiconductor (NMOS) transistor and/or at least one p-channel metal-oxide-semiconductor (PMOS) transistor, with the first bias circuit (1402, 1530) to receive a RF input source and generate the gate to source bias (1403, 1532) for a gate terminal of one of the NMOS transistor or the PMOS transistor of the first voltage multiplier circuit (1410, 1540). a first bias circuit (1402, 1530) to supply a gate to source bias (1403, 1532), which is independent of a direct current output voltage; a first voltage multiplier circuit (1410, 1540) coupled to the first bias circuit (1402, 1530), the voltage multiplier circuit to generate the DC output voltage; the voltage multiplier circuit (1410, 1540) having at least one n-channel metal-oxide-semiconductor (NMOS) transistor and/or at least one p-channel metal-oxide-semiconductor (PMOS) transistor, with the first bias circuit (1402, 1530) to receive a RF input source and generate the gate to source bias (1403, 1532) for a gate terminal of one of the NMOS transistor or the PMOS transistor of the first voltage multiplier circuit (1410, 1540).
A method for preparation of labeled metabolic products, comprising the steps: (a) providing a biological sample in vitro; (b) contacting the biological sample with a labeling buffer comprising a labeled substrate, wherein the substrate comprises at least one carbon atom and represents an educt or intermediate of a metabolic process of the biological sample and wherein the label is a stable isotope; (c) washing the biological sample using a wash-buffer, wherein said wash-buffer comprises a carbon resource such that the biological sample is precluded from carbon deficiency during said washing, wherein said carbon resource comprises the substrate according to step b), wherein said substrate in the wash-buffer may be labeled or unlabeled; (d) quenching the biological sample such that metabolic processes within the biological sample are slowed down or stopped; and (e) extracting the labeled metabolic product from the biological sample. (a) providing a biological sample in vitro; (b) contacting the biological sample with a labeling buffer comprising a labeled substrate, wherein the substrate comprises at least one carbon atom and represents an educt or intermediate of a metabolic process of the biological sample and wherein the label is a stable isotope; (c) washing the biological sample using a wash-buffer, wherein said wash-buffer comprises a carbon resource such that the biological sample is precluded from carbon deficiency during said washing, wherein said carbon resource comprises the substrate according to step b), wherein said substrate in the wash-buffer may be labeled or unlabeled; (d) quenching the biological sample such that metabolic processes within the biological sample are slowed down or stopped; and (e) extracting the labeled metabolic product from the biological sample.
A child car seat comprising: a seat body; a headrest connected to said seat body; a first seat belt and a second seat belt disposed on said seat body; a first shoulder pad unit, wherein said first shoulder pad unit comprises a first shoulder pad that is connected to said first seat belt, and a first connecting strap that interconnects said first shoulder pad and said headrest; and a second shoulder pad unit, wherein said second shoulder pad unit comprises a second shoulder pad that is connected to said second seat belt, and a second connecting strap that interconnects said second shoulder pad and said headrest; wherein each of said first and second shoulder pads is sleeved on a portion of a respective one of said first and second seat belts; wherein said headrest is vertically movable with respect to said seat body, and each of said first and second shoulder pad units is connected co-movably with said headrest as said headrest moves vertically; and wherein each of said first and second connecting straps comprises a first end that is sewn fixedly to said corresponding first and second shoulder pad. a seat body; a headrest connected to said seat body; a first seat belt and a second seat belt disposed on said seat body; a first shoulder pad unit, wherein said first shoulder pad unit comprises a first shoulder pad that is connected to said first seat belt, and a first connecting strap that interconnects said first shoulder pad and said headrest; and a second shoulder pad unit, wherein said second shoulder pad unit comprises a second shoulder pad that is connected to said second seat belt, and a second connecting strap that interconnects said second shoulder pad and said headrest; wherein each of said first and second shoulder pads is sleeved on a portion of a respective one of said first and second seat belts; wherein said headrest is vertically movable with respect to said seat body, and each of said first and second shoulder pad units is connected co-movably with said headrest as said headrest moves vertically; and wherein each of said first and second connecting straps comprises a first end that is sewn fixedly to said corresponding first and second shoulder pad.
A coated metal body comprising: a metal base; and a coating formed on at least a portion of a surface of said metal base, wherein said coating includes a cermet coating comprising: a hard phase; and a binder phase that binds said hard phase, wherein said cermet coating is bonded directly to at least a portion of the surface of said metal base; said hard phase comprises a carbide phase composed of at least one type of WC and CrC; and said binder phase includes at least one type of metal phase selected from Co, Ni, NiCr, and CoCr, and has a structure of a metal polycrystalline body. a hard phase; and a binder phase that binds said hard phase, wherein said cermet coating is bonded directly to at least a portion of the surface of said metal base; said hard phase comprises a carbide phase composed of at least one type of WC and CrC; and said binder phase includes at least one type of metal phase selected from Co, Ni, NiCr, and CoCr, and has a structure of a metal polycrystalline body.
A tire deformation calculator comprising: a detector which is configured to detect a contour of a side face of a tire attached to a wheel of a vehicle in a captured image; a calculator which is configured to calculate load deformation of the contour of the side face, the load corresponding to a weight of the vehicle; characterized by an identifier which is configured to identify a circular or polygonal shape or pattern on a plane parallel to the contour of the side face; and a conversion value acquirer which is configured to determine a conversion value for converting the identified shape or pattern in the captured image to a perfect circle or a regular polygon; wherein the calculator is configured to calculate a predetermined value indicating the load deformation of the tire in the captured image based on the conversion value determined by the conversion value acquirer and is configured to calculate the load deformation based on the predetermined value. a detector which is configured to detect a contour of a side face of a tire attached to a wheel of a vehicle in a captured image; a calculator which is configured to calculate load deformation of the contour of the side face, the load corresponding to a weight of the vehicle; characterized by an identifier which is configured to identify a circular or polygonal shape or pattern on a plane parallel to the contour of the side face; and a conversion value acquirer which is configured to determine a conversion value for converting the identified shape or pattern in the captured image to a perfect circle or a regular polygon; wherein the calculator is configured to calculate a predetermined value indicating the load deformation of the tire in the captured image based on the conversion value determined by the conversion value acquirer and is configured to calculate the load deformation based on the predetermined value.