mhurhangee/ep-ind-claims huggingface dataset:
A robot tool for a robot for automatic removal of package binding materials of a packaged good having a separating device for severing the package binding material and having a roll-up device for rolling up the severed package binding material, characterized in that there is provided a holding device, which has two rhombic gripping tongs, which are designed for lifting the package binding material from the packaged good and for continuously holding the lifted package binding material during the process of severing and rolling up the package binding material.
A method for receiving a physical uplink shared channel, PUSCH, in a cell of a radio access network applying time-division-duplex communication, the method being performed by a base station serving the cell, the method comprising: - determining whether remote base station interference, RI, is present for PUSCH transmissions in the cell; - based on the determining result, configuring activation or deactivation of code block group, CBG, based retransmissions in the cell; - sending control messages to one or more user equipment, UEs, in the cell, for applying the configuration; and - decoding subsequent PUSCH transmissions received from the one or more UEs based on the configuration, characterised in that: determining whether RI is present when CBG-based retransmissions are activated comprises determining that first code blocks of a PUSCH transport block following a guard period of a downlink to uplink switch are repeatedly retransmitted. - determining whether remote base station interference, RI, is present for PUSCH transmissions in the cell; - based on the determining result, configuring activation or deactivation of code block group, CBG, based retransmissions in the cell; - sending control messages to one or more user equipment, UEs, in the cell, for applying the configuration; and - decoding subsequent PUSCH transmissions received from the one or more UEs based on the configuration, characterised in that: determining whether RI is present when CBG-based retransmissions are activated comprises determining that first code blocks of a PUSCH transport block following a guard period of a downlink to uplink switch are repeatedly retransmitted.
A modular assembly system for a portable hemodialysis system, comprising: a dialysis unit including a dialysis unit housing that in use contains components for performing hemodialysis comprising one or more pumps to circulate blood through a dialyzer and one or more pumps to circulate dialysate through the dialyzer, wherein the pumps to circulate blood and dialysate are pneumatic pumps,, the dialysis unit further comprising a controller configured to control the flow of control fluid in the hemodialysis system and a control interface configured to allow a user to control operation of the dialysis unit; and a pneumatic power unit within a pneumatic power unit housing configured to provide pneumatic power to the dialysis unit to power the pumps of the dialysis unit; and characterized in that the pneumatic power unit housing is reversibly connectable to the dialysis unit to provide the pneumatic power to the dialysis unit. a dialysis unit including a dialysis unit housing that in use contains components for performing hemodialysis comprising one or more pumps to circulate blood through a dialyzer and one or more pumps to circulate dialysate through the dialyzer, wherein the pumps to circulate blood and dialysate are pneumatic pumps,, the dialysis unit further comprising a controller configured to control the flow of control fluid in the hemodialysis system and a control interface configured to allow a user to control operation of the dialysis unit; and a pneumatic power unit within a pneumatic power unit housing configured to provide pneumatic power to the dialysis unit to power the pumps of the dialysis unit; and characterized in that the pneumatic power unit housing is reversibly connectable to the dialysis unit to provide the pneumatic power to the dialysis unit.
A platinum alloy catalyst PtXNb, wherein X is nickel, cobalt, chromium, copper, titanium or manganese, characterised in that in the alloy the atomic percentage of platinum is 46-75at%, of X is 1-49at% and ofNb is 1-35at%.
Device for sealing three-dimensional objects into the bag opening of a film bag, - having a holder (36, 38) for the film bag that on either side has a respective pair of clamping shoes (42, 44) between which the edge of the film bags can be held, - having a sealing facility (26, 28) for sealing the three-dimensional object into the bag opening of the film bag, the sealing facility (26, 28) having a pair of sealing jaws (26, 28) between which the bag opening of the film bags can be sealed, - wherein the two clamping shoe pairs (42, 44) of the holder (36, 38) can be moved apart from one another, - characterized in that - the clamping shoes (42, 44) are each secured on a spring, more particularly on a bending spring, so that on the movement of the sealing jaws (26, 28) towards one another there is an overlaid movement of the springs away from one another. - having a holder (36, 38) for the film bag that on either side has a respective pair of clamping shoes (42, 44) between which the edge of the film bags can be held, - having a sealing facility (26, 28) for sealing the three-dimensional object into the bag opening of the film bag, the sealing facility (26, 28) having a pair of sealing jaws (26, 28) between which the bag opening of the film bags can be sealed, - wherein the two clamping shoe pairs (42, 44) of the holder (36, 38) can be moved apart from one another, - characterized in that - the clamping shoes (42, 44) are each secured on a spring, more particularly on a bending spring, so that on the movement of the sealing jaws (26, 28) towards one another there is an overlaid movement of the springs away from one another.
A wind-harvesting system comprising: a plurality of crosswind power kites (12, 14,16, 18, 20); a deployable tether (52, 54, 56, 58, 60) associated with each crosswind power kite (12, 14,16, 18, 20), the tether being releasably attachable to the crosswind power kite; a shared electric power generation site including a plurality of ground anchor assemblies (32, 34, 36, 38, 40); a shared runway configured for launching and landing each of the crosswind power kites; and a powered surface vehicle operable on the shared runway and configured to transport a lower end of the tether (52, 54, 56, 58, 60) associated with a launched crosswind power kite (12, 14,16, 18, 20) to a ground anchor assembly (32, 34, 36, 38, 40) to enable attachment of the tether to the ground anchor assembly; wherein the crosswind power kites (12, 14,16, 18, 20) are configured to take off and land on the shared runway as fixed-wing aircrafts. a plurality of crosswind power kites (12, 14,16, 18, 20); a deployable tether (52, 54, 56, 58, 60) associated with each crosswind power kite (12, 14,16, 18, 20), the tether being releasably attachable to the crosswind power kite; a shared electric power generation site including a plurality of ground anchor assemblies (32, 34, 36, 38, 40); a shared runway configured for launching and landing each of the crosswind power kites; and a powered surface vehicle operable on the shared runway and configured to transport a lower end of the tether (52, 54, 56, 58, 60) associated with a launched crosswind power kite (12, 14,16, 18, 20) to a ground anchor assembly (32, 34, 36, 38, 40) to enable attachment of the tether to the ground anchor assembly; wherein the crosswind power kites (12, 14,16, 18, 20) are configured to take off and land on the shared runway as fixed-wing aircrafts.
A line narrowing module for a narrow band DUV high power high repetition rate gas discharge laser producing an output pulsed laser beam in bursts of pulses, the line narrowing module comprising: a reflective grating (22, 66) moveably mounted within an optical path of the pulsed laser beam within the line narrowing module, selecting at least one center wavelength for each pulse determined at least in part by the angle of incidence of the pulsed laser beam containing the respective pulse on the grating (22, 66); at least three prisms (82, 84, 86, 88, 120) within said optical path; a first tuning mechanism (130, 130') configured to select the angle of incidence of the pulsed laser beam containing the respective pulse upon the grating (22, 66), by selecting an angle of transmission of the pulsed laser beam containing the pulse toward the grating by rotating at least one of the three prisms (82, 84, 86, 88, 120); a second tuning mechanism configured to select the angle (22, 66) of incidence of the pulsed laser beam containing the respective pulse upon the grating by rotating the reflective grating (22, 66); and a center wavelength detector configured to detect the center wavelength of at least one pulse in the burst of pulses; a wavelength controller configured to control the first (130, 130') and second tuning mechanism based upon feedback from said center wavelength detector that is provided based upon an algorithm employing the detected center wavelength for the at least one pulse in the burst so that the second tuning mechanism coarsely selects a value for the center wavelength and the first tuning mechanism (130, 130') more finely selects the value for the center wavelength; wherein the first tuning mechanism comprises a fine positioning mechanism comprising an actuatable material that changes position or shape when actuated, the actuatable material comprising a piezoelectric material, and the second tuning mechanism comprises an electromechanical coarse positioning mechanism. a reflective grating (22, 66) moveably mounted within an optical path of the pulsed laser beam within the line narrowing module, selecting at least one center wavelength for each pulse determined at least in part by the angle of incidence of the pulsed laser beam containing the respective pulse on the grating (22, 66); at least three prisms (82, 84, 86, 88, 120) within said optical path; a first tuning mechanism (130, 130') configured to select the angle of incidence of the pulsed laser beam containing the respective pulse upon the grating (22, 66), by selecting an angle of transmission of the pulsed laser beam containing the pulse toward the grating by rotating at least one of the three prisms (82, 84, 86, 88, 120); a second tuning mechanism configured to select the angle (22, 66) of incidence of the pulsed laser beam containing the respective pulse upon the grating by rotating the reflective grating (22, 66); and a center wavelength detector configured to detect the center wavelength of at least one pulse in the burst of pulses;
A communications method, comprising: receiving (S402B, S402C), by a first base station, a first terminal identifier and a wireless configuration parameter from a second base station, wherein the first terminal identifier is used to identify a terminal and the first base station; generating (S400C-1, S400C-2), by the first base station, a 3GPP radio resource control release message on which encryption and integrity protection are performed by the first base station by using a first key, wherein the radio resource control release message indicates the terminal to maintain an inactive state or to enter an idle state, and the first key is derived by the first base station based on a second key and a key derivation parameter, wherein the second key is a key used by the terminal in a connected state and in communication with the first base station, and wherein the 3GPP radio resource control release message includes the wireless configuration parameter; and sending (S404A-1, S404A-2), by the first base station, the first key and the radio resource control release message to the second base station; wherein the radio resource control release message comprises the key derivation parameter; or wherein the method further comprises sending (S404A-2), by the first base station, the key derivation parameter to the second base station. receiving (S402B, S402C), by a first base station, a first terminal identifier and a wireless configuration parameter from a second base station, wherein the first terminal identifier is used to identify a terminal and the first base station; generating (S400C-1, S400C-2), by the first base station, a 3GPP radio resource control release message on which encryption and integrity protection are performed by the first base station by using a first key, wherein the radio resource control release message indicates the terminal to maintain an inactive state or to enter an idle state, and the first key is derived by the first base station based on a second key and a key derivation parameter, wherein the second key is a key used by the terminal in a connected state and in communication with the first base station, and wherein the 3GPP radio resource control release message includes the wireless configuration parameter; and sending (S404A-1, S404A-2), by the first base station, the first key and the radio resource control release message to the second base station; wherein the radio resource control release message comprises the key derivation parameter; or wherein the method further comprises sending (S404A-2), by the first base station, the key derivation parameter to the second base station.
A method for performing a measurement on a data flow at a node (N(m)) of a communication network, said data flow being transmitted along a transmission path comprising said node (N(m)), said data flow comprising data units (Pki), data units (Pki) transmitted during first block periods (n-2, n) being marked by a first marking value (Va) and data units (Pki) transmitted during second block periods (n-1, n+1) being marked by a second marking value (Vb), said first block periods (n-2, n) alternating in time with said second block periods (n-1, n+1), said method comprising, at said node (N(m)), during a current block period (n): a) determining a first parameter (Pkt(m, n)) relating to said data units (Pki) received at said node (N(m)) during a preceding block period (n-1); b) receiving from a further node (N(m')) of said transmission path a first data structure (Tk(m', n)) comprising a second parameter (Pkt(m', n)) relating to data units (Pki) transmitted to said node (N(m)) during said preceding block period (n-1); c) processing said first parameter (Pkt(m, n)) and said second parameter (Pkt(m', n)) for providing a result (DL(m', m, n)) of said measurement on said data flow (Pki); and d) transmitting to a still further node of said transmission path a second data structure (Tk(m, n)) comprising said first parameter (Pkt(m, n)). a) determining a first parameter (Pkt(m, n)) relating to said data units (Pki) received at said node (N(m)) during a preceding block period (n-1); b) receiving from a further node (N(m')) of said transmission path a first data structure (Tk(m', n)) comprising a second parameter (Pkt(m', n)) relating to data units (Pki) transmitted to said node (N(m)) during said preceding block period (n-1); c) processing said first parameter (Pkt(m, n)) and said second parameter (Pkt(m', n)) for providing a result (DL(m', m, n)) of said measurement on said data flow (Pki); and d) transmitting to a still further node of said transmission path a second data structure (Tk(m, n)) comprising said first parameter (Pkt(m, n)).
Method for determining the fill level of a medium by means of continuous wave radar measurement, wherein a code sequence is generated by a code sequence generator and a coded transmit signal coded with the code sequence is emitted by a transmitter, wherein the transmit signal is at least partially reflected at the medium and is received by a receiver as a reflection signal, wherein the reflection signal and a derived signal being derived from the transmit signal are subjected to a correlation analysis with a correlator and a correlation outcome results, wherein a control and evaluation unit determines the time offset of the correlated signals with the correlation outcome and uses it to determine the fill level of the medium, wherein the correlator comprises an analog mixer and the reflection signal and the derived signal being derived from the transmit signal are mixed with the analog mixer into a mixer output signal, wherein the correlator has an analog/digital converter, with which the mixer output signal is sampled and quantized to a digital mixer output signal, and wherein the correlator has a digital integrator with which a sequence of digital mixer output signals is digitally integrated into the correlation outcome, wherein the correlator comprises an analog low-pass filter and the mixer output signal is filtered by the low-pass filter and the low-pass filtered mixer output signal is sampled by the analog/digital converter and quantized to a digital mixer output signal, wherein a binary code sequence of the length N code is generated by the code sequence generator and the transmitter emits each bit of the binary code sequence with the bit duration T chip and the transmitter thereby emits the binary code sequence with the binary code sequence duration T code = N code ∗ T chip, wherein the sampling of the mixer output signal is sampled at a sampling frequency f sample of the analog/digital converter between the bit frequency 1/T chip and the code sequence frequency f code = 1/T code, in particular wherein the sampling frequency f sample of the analog/digital converter corresponds to at least twice the code sequence frequency f code.
Device for the dosed injection of a liquid exhaust-gas aftertreatment agent, preferably an aqueous urea solution, into an exhaust system of an internal combustion engine, having at least one device body, which has a working chamber, and having at least one volume compensation element, which adapts a working chamber volume of the working chamber in accordance with a change in volume of the liquid exhaust-gas aftertreatment agent situated in the working chamber during the phase transition thereof, characterized in that the material of the volume compensation element has such a temperature-dependent coefficient of expansion that the change in volume is compensated by means of a change in volume effected by the volume compensation element, wherein the volume compensation element is operatively connected by means of at least one displaceable and/or deformable intermediate element to the working chamber, wherein the intermediate element projects into the working chamber to different extents in a manner dependent on the change in volume of the volume compensation element.
Detecting element for a cable for detecting leaks of electrically nonconductive liquid, said detecting element comprising at least one sensor means which includes at least one detection member, produced at least partially from a material which swells upon contact with said liquid and which is filled with electrically conductive particles, such that: - the detection member is conductive when it is not contaminated by said nonconductive liquid, and - the detection member loses its conductivity when it swells under the effect of said liquid; said detecting element being characterized in that the sensor means has the form of an elongated bundle with a proximal end and a distal end with respect to an electronic module referred to as management module, and which comprises moreover at least two insulated conductive wires (106, 110), referred to as detection wires, forming a bundle extending over the entire length of the detecting element and which are connected by one end, referred to as proximal end, to said management module; and in that said detection member is connected to the management module, arranged in order to detect the presence of said liquid by recording a decrease in the conductivity of said detection member, said management module being arranged in order to: - on the one hand detect the presence of liquid by recording a reduction in the conductivity of said detection member by means of a connection at one distal end of said detection member with the distal end of one of the conductive detection wires (106, 110), referred to as return wire, and - on the other hand verify the continuity of the detecting element by recording the electrical continuity of a circuit established by connecting the distal end of the other conductive detection wire, referred to as continuity wire, with the distal end of said return wire. - the detection member is conductive when it is not contaminated by said nonconductive liquid, and - the detection member loses its conductivity when it swells under the effect of said liquid; - on the one hand detect the presence of liquid by recording a reduction in the conductivity of said detection member by means of a connection at one distal end of said detection member with the distal end of one of the conductive detection wires (106, 110), referred to as return wire, and - on the other hand verify the continuity of the detecting element by recording the electrical continuity of a circuit established by connecting the distal end of the other conductive detection wire, referred to as continuity wire, with the distal end of said return wire.
A detection chamber (5, 60) for imaging an object comprising: - a wall structure defining a measurement volume for receiving the object to be imaged and holding a fluid matching medium, the wall structure having windows (35,40) being arranged to couple light from a light source into the measurement volume and light emanating from the measurement volume out of the measurement volume; - an opening in the wall structure for accommodating the object to be imaged in the measurement volume; - a movable wall portion (15, 63), comprised in the wall structure, the movable wall portion being movable as to vary the volume of the measurement volume bounded by the wall structure, characterized in that the wall structure comprising the movable wall portion (15, 63) is fluid-tight and arranged to compress the object to be accommodated in the measurement volume, wherein the movable wall portion is arranged to, by itself, compress the object to be accommodated in the measurement volume and wherein the movable wall portion is slidably arranged in a direction perpendicular to the surfaces comprising the windows (35,40). - a wall structure defining a measurement volume for receiving the object to be imaged and holding a fluid matching medium, the wall structure having windows (35,40) being arranged to couple light from a light source into the measurement volume and light emanating from the measurement volume out of the measurement volume; - an opening in the wall structure for accommodating the object to be imaged in the measurement volume; - a movable wall portion (15, 63), comprised in the wall structure, the movable wall portion being movable as to vary the volume of the measurement volume bounded by the wall structure,
A plug assembly for plugging a tube comprising: a frusto-conical plug in the tube having a tapered end and a blunt end; an annular compression ring circumscribing a portion of the plug and changeable into a sealing configuration that radially spans between the plug and an inner surface of the tube; the assembly being characterised by a compression fitting comprising a leg coupled to the tapered end of the plug and a shoulder on a free end of the leg that is wedged against a lateral side of the compression ring; and a fastener mounting the compression fitting to the tapered end of the plug. a frusto-conical plug in the tube having a tapered end and a blunt end; an annular compression ring circumscribing a portion of the plug and changeable into a sealing configuration that radially spans between the plug and an inner surface of the tube; the assembly being characterised by a compression fitting comprising a leg coupled to the tapered end of the plug and a shoulder on a free end of the leg that is wedged against a lateral side of the compression ring; and a fastener mounting the compression fitting to the tapered end of the plug.