mhurhangee/ep-ind-claims huggingface dataset:
A method for working paving elements, comprising the steps of: - placing an installation package having a number of paving elements and a corresponding jointing pattern on a support such that said paving elements are juxtaposed with clearance to each other and to a frame; - arranging profile elements made of a material being harder than the material of the paving elements on a side facing a visible surface of said paving elements, in said jointing pattern of said installation package; - putting a cover plate on said paving elements placed on said support, wherein a pressure applied from said cover plate onto said paving elements is adjusted; and - setting said support and/or said profile elements into vibration. - placing an installation package having a number of paving elements and a corresponding jointing pattern on a support such that said paving elements are juxtaposed with clearance to each other and to a frame; - arranging profile elements made of a material being harder than the material of the paving elements on a side facing a visible surface of said paving elements, in said jointing pattern of said installation package; - putting a cover plate on said paving elements placed on said support, wherein a pressure applied from said cover plate onto said paving elements is adjusted; and - setting said support and/or said profile elements into vibration.
A computer program product for managing the elution from a multiple generator elution system, comprising: a computer-usable medium having computer-usable program code that manages a multiple generator elution system, computer program product including: computer-usable program code that receives inputted supply data for a number of parent-daughter generators; computer-usable program code receives demand data for activity from the generators; computer-usable program code that calculates an elution schedule for the generators based on the available activity in the generators and the demand data; and computer program code that directs an actuation system of the elution system to elute from selected ones of the generators according to the elution schedule. a computer-usable medium having computer-usable program code that manages a multiple generator elution system, computer program product including: computer-usable program code that receives inputted supply data for a number of parent-daughter generators; computer-usable program code receives demand data for activity from the generators; computer-usable program code that calculates an elution schedule for the generators based on the available activity in the generators and the demand data; and computer program code that directs an actuation system of the elution system to elute from selected ones of the generators according to the elution schedule.
A steering column for a motor vehicle, comprising a casing unit in which a steering spindle is mounted so as to be rotatable about a longitudinal axis and which has at least three telescopically guided casing tubes (31, 32, 33) which are mutually adjustable in the axial direction, of which one forms an external casing tube in which at least one intermediate casing tube is received, an internal casing tube being received in the latter, and comprising a locking bolt installation which is specified for releasably locking at least two of the casing tubes (31, 32, 33) to one another in the direction of the longitudinal axis, characterized in that the locking bolt installation is able to be switched between an internal blocking position and an external blocking position, wherein the intermediate casing tube in the internal blocking position is locked to the internal casing tube, and the intermediate casing tube in the external blocking position is locked to the external casing tube.
A device comprising: a power storage device; an electrical load; a first circuit configured to generate, during a first time period and using electrical energy received from a power source external to the device, a first power signal to charge the power storage device; and characterised in that the device further comprises: a second circuit configured to: determine a charging current at which to charge the power storage device; determine a total amount of current flowing to the power storage device that includes current sourced by the second circuit less current sinked by the electrical load; and generate, during a second time period that is non-overlapping with the first time period, using electrical energy received from the power source and based on the determined total amount of current, a second power signal to charge the power storage device at the determined charging current. a power storage device; an electrical load; a first circuit configured to generate, during a first time period and using electrical energy received from a power source external to the device, a first power signal to charge the power storage device; and characterised in that the device further comprises: a second circuit configured to: determine a charging current at which to charge the power storage device; determine a total amount of current flowing to the power storage device that includes current sourced by the second circuit less current sinked by the electrical load; and generate, during a second time period that is non-overlapping with the first time period, using electrical energy received from the power source and based on the determined total amount of current, a second power signal to charge the power storage device at the determined charging current. determine a charging current at which to charge the power storage device; determine a total amount of current flowing to the power storage device that includes current sourced by the second circuit less current sinked by the electrical load; and generate, during a second time period that is non-overlapping with the first time period, using electrical energy received from the power source and based on the determined total amount of current, a second power signal to charge the power storage device at the determined charging current.
A method of determining plausibility of intelligent transport system, ITS, messages (206, 306, 310, 406, 410, 506, 510, 606, 706) received via a wireless communications channel at one or more message receivers (202, 304, 404, 504, 610), the method including the steps of: receiving a first ITS message (206, 306, 310, 406, 410, 506, 510, 606, 706) having a first characteristic; receiving a second ITS message (206, 306, 310, 406, 410, 506, 510, 606, 706) having a second characteristic, the second ITS message being associated with the first ITS message; determining, using the first characteristic and the second characteristic to satisfy at least one predetermined criterion, plausibility of at least one of the first ITS message, the second ITS message and a third ITS message (206, 306, 310, 406, 410, 506, 510, 606, 706); wherein either or both of the first characteristic and the second characteristic includes a MAC-layer characteristic, which includes ranging information; and wherein the ranging information is derivable from a return time of an acknowledgement, ACK, packet or from differential timing of the first and second ITS messages received by separate road-side units, RSUs, or on-board units, OBUs, wherein the first and second ITS messages are the same message. receiving a first ITS message (206, 306, 310, 406, 410, 506, 510, 606, 706) having a first characteristic; receiving a second ITS message (206, 306, 310, 406, 410, 506, 510, 606, 706) having a second characteristic, the second ITS message being associated with the first ITS message; determining, using the first characteristic and the second characteristic to satisfy at least one predetermined criterion, plausibility of at least one of the first ITS message, the second ITS message and a third ITS message (206, 306, 310, 406, 410, 506, 510, 606, 706); wherein either or both of the first characteristic and the second characteristic includes a MAC-layer characteristic, which includes ranging information; and wherein the ranging information is derivable from a return time of an acknowledgement, ACK, packet or from differential timing of the first and second ITS messages received by separate road-side units, RSUs, or on-board units, OBUs, wherein the first and second ITS messages are the same message.
An electrode assembly comprising 2n bi-cells, (n being 3 or 4), characterized in that a first electrode element comprises a cathode, an anode, and a first separator, the first electrode element being configured to have a stacked structure in which the cathode and anode are stacked in a state in which a first separator is separately disposed between the cathode and the anode; a second electrode element comprises a cathode, an anode, and a first separator (303, 322), the second electrode element being configured to have stacked structure in which the cathode and the anode are stacked in a state in which the fist separator is disposed between the cathode and the anode, the cathode, the anode and the first separator being attached to one another, a third electrode element comprises the first separator (303, 322) and a cathode or an anode, the first separator (303, 322) and the cathode or the anode being attached to each other, the bi-cells are configured to have a stacked structure in which the uppermost electrode and the lowermost electrode have the same polarity, the first electrode element and a cathode, an anode, or the third electrode element are stacked, or the second electrode element and a cathode, an anode, or the third electrode element are stacked, when the bi-cell is an A type bi-cell anodes are located at the outermost sides of the bi-cell, when the bi-cell is a C type bi-cell cathodes are located at the outermost sides of the bi-cell, and in the electrode assembly bi-cells (250, 210, 240) of the A type and bi-cells (230, 220, 260) of the C type are stacked in alternating manner.
A kit comprising: (a) a first primary antibody specific for PD-L1; (b) a second primary antibody specific for at least one immune cell marker; (c) a first set of detection reagents comprising: a first enzyme; a set of reagents adapted to deposit the first enzyme on a tissue sample in proximity to the first primary antibody while the first primary antibody is bound to the tissue sample; and a substrate reactive with the first enzyme to deposit a first dye on the sample in proximity to the first enzyme; and (d) a second set of detection reagents comprising: a second enzyme; a set of reagents adapted to deposit the second enzyme on a tissue sample in proximity to the second primary antibody while the second primary antibody is bound to the tissue sample; and a substrate reactive with the second enzyme to deposit a second dye on the sample in proximity to the second enzyme; wherein the first dye is tetramethylrhodamine (DISCOVERY Purple) and the second dye is 4-(dimethylamino) azobenzene-4'-sulfonamide (DABSYL), or wherein the first dye is 4-(dimethylamino) azobenzene-4'-sulfonamide (DABSYL) and the second dye is tetramethylrhodamine (DISCOVERY Purple). (a) a first primary antibody specific for PD-L1; (b) a second primary antibody specific for at least one immune cell marker; (c) a first set of detection reagents comprising: a first enzyme; a set of reagents adapted to deposit the first enzyme on a tissue sample in proximity to the first primary antibody while the first primary antibody is bound to the tissue sample; and a substrate reactive with the first enzyme to deposit a first dye on the sample in proximity to the first enzyme; and a first enzyme; a set of reagents adapted to deposit the first enzyme on a tissue sample in proximity to the first primary antibody while the first primary antibody is bound to the tissue sample; and a substrate reactive with the first enzyme to deposit a first dye on the sample in proximity to the first enzyme; and (d) a second set of detection reagents comprising: a second enzyme; a set of reagents adapted to deposit the second enzyme on a tissue sample in proximity to the second primary antibody while the second primary antibody is bound to the tissue sample; and a substrate reactive with the second enzyme to deposit a second dye on the sample in proximity to the second enzyme; a second enzyme; a set of reagents adapted to deposit the second enzyme on a tissue sample in proximity to the second primary antibody while the second primary antibody is bound to the tissue sample; and a substrate reactive with the second enzyme to deposit a second dye on the sample in proximity to the second enzyme;
A PNA agent comprising: a PNA moiety; and a first cationic and hydrophobic peptide at the N-terminus of the PNA moiety, wherein the first peptide comprises lysine residues and at least one of the lysine residues comprises a palmitoyl side chain moiety; and a second cationic and hydrophobic peptide at the C-terminus of the PNA moiety, wherein the second peptide comprises lysine residues, and at least one of the lysine residues comprises a palmitoyl side chain moiety. a PNA moiety; and a first cationic and hydrophobic peptide at the N-terminus of the PNA moiety, wherein the first peptide comprises lysine residues and at least one of the lysine residues comprises a palmitoyl side chain moiety; and a second cationic and hydrophobic peptide at the C-terminus of the PNA moiety, wherein the second peptide comprises lysine residues, and at least one of the lysine residues comprises a palmitoyl side chain moiety.
A method for producing a barium sulfate spherical composite powder, which is a method for producing a spherical composite powder of barium sulfate and silica, the method comprising the steps of: preparing a slurry containing particulate barium sulfate and a silica sol; spray-drying the slurry; and firing a dry substance obtained in the step. preparing a slurry containing particulate barium sulfate and a silica sol; spray-drying the slurry; and firing a dry substance obtained in the step.
A rotational sensor comprising: a case having an opening; a detection element accommodated in the case; a cover member configured to cover the opening of the case; a terminal electrically connected to the detection element, characterized by: an elastic body configured to be press-fitted into the case, the elastic body being provided between the detection element and the cover member in a condition that the elastic body is elastically deformed in relation to an axial direction of the elastic body, the cover member configured to press the detection element through the elastic body. a case having an opening; a detection element accommodated in the case; a cover member configured to cover the opening of the case; a terminal electrically connected to the detection element, characterized by: an elastic body configured to be press-fitted into the case, the elastic body being provided between the detection element and the cover member in a condition that the elastic body is elastically deformed in relation to an axial direction of the elastic body, the cover member configured to press the detection element through the elastic body. an elastic body configured to be press-fitted into the case, the elastic body being provided between the detection element and the cover member in a condition that the elastic body is elastically deformed in relation to an axial direction of the elastic body, the cover member configured to press the detection element through the elastic body.
A needle shield remover for removing a needle shield covering a needle on a syringe, characterized in that it comprises: a body having a proximal portion and a distal portion, the distal portion being moveable between a radial contracted configuration and a radial expanded configuration in response to opposite movement of the proximal portion in a radial direction, the body further having a living hinge disposed between the proximal and distal portions (14, 16) and configured to facilitate movement between the radial contracted and radial expanded configurations, the distal portion having an internal opening for receiving and at least partially surrounding a needle shield therein, an anchor extending inwardly from the distal portion into engagement with the needle shield when the distal portion is in the contracted configuration to secure the body to the needle shield; and a sleeve (13, 82) in fixed and releasable axial engagement with the proximal portion of the body thereby maintaining the distal portion of the body in the contracted configuration such that force applied to the sleeve (13, 82) away from the body removes the needle shield and body from a syringe, the body, or the sleeve (13, 82), also including at least one aperture latch configured to releasably engage at least a catch provided in the sleeve (13, 82), or in the body, in order to releasably connect said body to said sleeve (13, 82). a body having a proximal portion and a distal portion, the distal portion being moveable between a radial contracted configuration and a radial expanded configuration in response to opposite movement of the proximal portion in a radial direction, the body further having a living hinge disposed between the proximal and distal portions (14, 16) and configured to facilitate movement between the radial contracted and radial expanded configurations, the distal portion having an internal opening for receiving and at least partially surrounding a needle shield therein, an anchor extending inwardly from the distal portion into engagement with the needle shield when the distal portion is in the contracted configuration to secure the body to the needle shield; and a sleeve (13, 82) in fixed and releasable axial engagement with the proximal portion of the body thereby maintaining the distal portion of the body in the contracted configuration such that force applied to the sleeve (13, 82) away from the body removes the needle shield and body from a syringe, the body, or the sleeve (13, 82), also including at least one aperture latch configured to releasably engage at least a catch provided in the sleeve (13, 82), or in the body, in order to releasably connect said body to said sleeve (13, 82).
An electronic device, comprising: a frame, defining at least one transmission channel therein, and the transmission channel comprising a first end and a second end opposite to the first end; a screen assembly, connected to the frame; the screen assembly comprising a display portion and a non-display portion being connected to an edge of the display portion, and the non-display portion covering the first end; and a proximity sensor, disposed in a receiving space defined by the frame; wherein the proximity sensor is adjacent to the second end, and opposite to the non-display portion via the transmission channel; the proximity sensor is configured to transmit and receive signals that passes through the transmission channel and the non-display portion; characterized in that the frame comprises a main body and a support portion, the support portion protrudes from a side of the main body facing the receiving space; the transmission channel is defined in the support portion, the support portion comprises a support surface connected to the main body, the non-display portion is attached to the support portion and stacked on the support surface, the first end of the transmission channel penetrates the support surface. a frame, defining at least one transmission channel therein, and the transmission channel comprising a first end and a second end opposite to the first end; a screen assembly, connected to the frame; the screen assembly comprising a display portion and a non-display portion being connected to an edge of the display portion, and the non-display portion covering the first end; and a proximity sensor, disposed in a receiving space defined by the frame; wherein the proximity sensor is adjacent to the second end, and opposite to the non-display portion via the transmission channel; the proximity sensor is configured to transmit and receive signals that passes through the transmission channel and the non-display portion; characterized in that the frame comprises a main body and a support portion, the support portion protrudes from a side of the main body facing the receiving space; the transmission channel is defined in the support portion, the support portion comprises a support surface connected to the main body, the non-display portion is attached to the support portion and stacked on the support surface, the first end of the transmission channel penetrates the support surface.
A method of making a powder of dense and spherically shaped cermet or cemented carbide granules, wherein the method comprises the steps of: (a) forming spherically shaped granules comprising metal, hard constituents and organic binder; (b) mixing said spherically shaped granules with a sintering inhibitor powder to form a mixture of spherically shaped granules and sintering inhibitor powder; (c) loading the mixture of spherically shaped granules and sintering inhibitor powder in a furnace chamber; (d) heat-treating the mixture obtained in step (b) in the furnace chamber at a sintering temperature to remove organic binder from the spherically shaped granules and to sinter the hard constituents with the metal in each spherically shaped granule and thereby forming a mixture of sintered dense spherically shaped granules and sintering inhibitor powder; (e) unloading the mixture of sintered dense spherically shaped granules and sintering inhibitor powder from the furnace chamber; and (f) separating the sintering inhibitor powder from the sintered dense spherically shaped granules whereby a powder of dense and spherically shaped cermet or cemented carbide granules is formed. (a) forming spherically shaped granules comprising metal, hard constituents and organic binder; (b) mixing said spherically shaped granules with a sintering inhibitor powder to form a mixture of spherically shaped granules and sintering inhibitor powder; (c) loading the mixture of spherically shaped granules and sintering inhibitor powder in a furnace chamber; (d) heat-treating the mixture obtained in step (b) in the furnace chamber at a sintering temperature to remove organic binder from the spherically shaped granules and to sinter the hard constituents with the metal in each spherically shaped granule and thereby forming a mixture of sintered dense spherically shaped granules and sintering inhibitor powder; (e) unloading the mixture of sintered dense spherically shaped granules and sintering inhibitor powder from the furnace chamber; and (f) separating the sintering inhibitor powder from the sintered dense spherically shaped granules whereby a powder of dense and spherically shaped cermet or cemented carbide granules is formed.
Adapter, for electrically connecting a lighting device to an electrical track having mains phases (L1, L2, L3), the adapter comprising at least: - a housing, - at least one spring-loaded connector (6.1) linked to the housing, and - a cover configured to partially cover the housing, the cover having at least one opening (8.1), wherein the cover is displaceable relative to the housing so as to be placed selectively in at least one of: - a position in which the at least one spring-loaded connector (6.1) extends at least partially through the at least one opening (8.1), - a position in which the cover covers the at least one spring-loaded connector (6.1). - a housing, - at least one spring-loaded connector (6.1) linked to the housing, and - a cover configured to partially cover the housing, the cover having at least one opening (8.1), - a position in which the at least one spring-loaded connector (6.1) extends at least partially through the at least one opening (8.1), - a position in which the cover covers the at least one spring-loaded connector (6.1).