mhurhangee/ep-ind-claims huggingface dataset:
Instrument intended for the preparation of a femoral shaft in order to fit a femoral stem, with or without cement, by a mini-invasive approach, said instrument consisting of two rasps: - the first of which has a shaping function intended to prepare the proximal portion of the femoral shaft and which has an active portion corresponding substantially to the upper third of the femoral stem to be implanted, and - the second of which, following the first, performs a function intended to prepare the distal portion of the same femoral shaft and has an active portion corresponding substantially to the lower two thirds of the femoral stem to be implanted, whereas the upper third of this same second rasp has a smooth portion and is narrower compared with the active portion, and corresponds substantially to the active portion of the first rasp, said first rasp having already operated in the proximal portion of the femoral shaft in such a way that it allows the said second rasp to operate in the distal portion of the femoral shaft, avoiding damage to the muscles. - the first of which has a shaping function intended to prepare the proximal portion of the femoral shaft and which has an active portion corresponding substantially to the upper third of the femoral stem to be implanted, and - the second of which, following the first, performs a function intended to prepare the distal portion of the same femoral shaft and has an active portion corresponding substantially to the lower two thirds of the femoral stem to be implanted, whereas the upper third of this same second rasp has a smooth portion and is narrower compared with the active portion, and corresponds substantially to the active portion of the first rasp, said first rasp having already operated in the proximal portion of the femoral shaft in such a way that it allows the said second rasp to operate in the distal portion of the femoral shaft, avoiding damage to the muscles.
Process for producing biaxially curved components from preforms which comprise polymethyl methacrylate, comprising the following steps: a) producing a preform of thickness from 30 to 400 mm from a polymethyl-methacrylate-containing polymer material, where the area A in the central plane of the preform is equal to the area Av in the central plane of the component obtained from the forming process, with a variance of ± 40%, b) introducing the preform into the apparatus for the forming process in such a way that it is freely moveable at its edges even during the forming process, and it is preferable here that the preform is placed on a female mould, c) heating the preform to a temperature of from 120 to 170°C, d) using a male mould to carry out a forming process on the preform. a) producing a preform of thickness from 30 to 400 mm from a polymethyl-methacrylate-containing polymer material, where the area A in the central plane of the preform is equal to the area Av in the central plane of the component obtained from the forming process, with a variance of ± 40%, b) introducing the preform into the apparatus for the forming process in such a way that it is freely moveable at its edges even during the forming process, and it is preferable here that the preform is placed on a female mould, c) heating the preform to a temperature of from 120 to 170°C, d) using a male mould to carry out a forming process on the preform.
A vehicle, said vehicle including an operator input device for controlling said vehicle, characterised in that said operator input device including an operator interface lever, said operator interface lever moveable by a vehicle operator in at least a first direction and at least a second direction about an axis, a sensor system including a sensor target, said sensor system (524,528) for sensing said moveable operator interface lever, said sensor system providing an operator interface lever position signal as a function of a position of said operator interface lever, an operator interface lever controllable brake coupled to said operator interface lever, a brake controller coupled to the sensor system (522,524,528) for receiving the operator interface mechanism position signal and with the brake controller coupled to the brake for responsively transmitting a plurality of brake signals to the brake with said operator interface lever controllable brake responsively providing a plurality of resistive braking forces to said operator interface lever for opposing a force applied to the operator interface lever by the operator, said operator interface lever controllable brake providing said resistive braking forces in response to a plurality of controller brake signals, with said brake controller providing a first background force drop signal followed with a second below background force drop signal followed with a third above background stop force signal wherein said operator is provided with a mechanical detent sensation at a target lever location.
A non-Cartesian coordinate positioning machine comprising a plurality of extendable leg assemblies for positioning a component within a working volume of the machine, each extendable leg assembly comprising an elongate member, with an end of the elongate member being provided with a bearing arrangement having three contact points, or at least substantially point-like contact surfaces, for bearing against an at least part spherical bearing surface provided on the machine, where a plane defined by the contact points or areas is substantially perpendicular to a longitudinal axis of the elongate member, and wherein such a bearing arrangement is provided at both ends of the elongate member.
System of a Host IC connected via a wired data interface to a Client IC to initiate the communication between the Host IC and the Client IC after power-on, wherein the Client IC comprises a PLL stage with a closed loop of a phase detector a filter and a voltage controlled oscillator for the generation of the clock (C-clk) for the Client IC, which PLL stage needs to be locked to the clock (H-clk) of the Host IC for regular data communication via the wired data interface, which system is characterized in, that the Client IC comprises a power-on stage to steer a switch in the connection between the input of the clock (H-clk) of the Host IC for the PLL stage and the voltage controlled oscillator of the PLL stage to open the connection and to use the unregulated output clock of the free-running voltage controlled oscillator in a time period after power-on for a power-on data communication via the wired data interface and to close the switch after that time period for regular data communication.
A flush tank drain valve control device comprising a hydraulic circuit connectable to a water mains; a shutter which acts on the circuit and is operated by an actuator assembly of the flush tank drain value control device; and a movable piston inserted inside a slide chamber of the flush tank drain value control device along the circuit, and connectable to the drain valve for opening the drain valve; the shutter being movable, operated by the actuator assembly, to selectively permit or cut off water flow along the circuit to the slide chamber, so as to push the piston inside the slide chamber; the device being characterized in that the piston is provided with an annular gasket cooperating radially with a lateral wall of the slide chamber; the gasket being formed by a plurality of sectors which cooperate mutually to slide laterally with respect to one another.
A vehicle control device comprising: a metallic base substance; an electronic control device mounted on the base substance, the electronic control device including a housing mounted on a mounting face of the base substance and a control board housed in the housing; and a heat dissipating part which is provided to protrude from the mounting face and inserted into the housing, the heat dissipating part abutting on the control board, characterized in that the housing includes a partition member formed to partition an inner space of the housing into spaces, a first housing chamber which is formed between the partition member and the mounting face, and a second housing chamber which is formed on the side opposite to the side of the mounting face across the partition member and into which the control board is housed, and wherein the partition member has an opening, and the heat dissipating part is inserted into the opening. a metallic base substance; an electronic control device mounted on the base substance, the electronic control device including a housing mounted on a mounting face of the base substance and a control board housed in the housing; and a heat dissipating part which is provided to protrude from the mounting face and inserted into the housing, the heat dissipating part abutting on the control board, characterized in that the housing includes a partition member formed to partition an inner space of the housing into spaces, a first housing chamber which is formed between the partition member and the mounting face, and a second housing chamber which is formed on the side opposite to the side of the mounting face across the partition member and into which the control board is housed, and wherein the partition member has an opening, and the heat dissipating part is inserted into the opening.
Process for separation of selenium from ruthenium- or ruthenium oxide-containing materials or ruthenium-containing precious metal-ore concentrates comprising the steps of 1A. Introducing the material into molten alkali hydroxide in the presence of nitrate as oxidation agent while forming an oxidised melting residue with water-soluble ruthenate (RuO 4) 2-, 1B. dissolving the oxidised melting residue thus obtained in water; the solution subsequently contains ruthenate (RuO 4) 2- and selenate (SeO 4) 2-, 1C. adding a reduction agent, 1D. precipitating water-containing ruthenium oxide, whereby selenium is being dissolved quantitatively as selenate in step 1B. 1A. Introducing the material into molten alkali hydroxide in the presence of nitrate as oxidation agent while forming an oxidised melting residue with water-soluble ruthenate (RuO 4) 2-, 1B. dissolving the oxidised melting residue thus obtained in water; the solution subsequently contains ruthenate (RuO 4) 2- and selenate (SeO 4) 2-, 1C. adding a reduction agent, 1D. precipitating water-containing ruthenium oxide, whereby selenium is being dissolved quantitatively as selenate in step 1B.
An apparatus comprising: a sound transducer; a casing member, where the sound transducer is mounted to the casing member, and where the casing member is configured to at least partially form an enclosure for the sound transducer; an antenna integrally formed with the casing member, wherein the antenna forms an antenna pattern; at least two electrical conductor wirings (66,68) integrally formed with the casing member, wherein the at least two electrical conductor wirings are electrically connected to the sound transducer; and at least one coupling component configured to couple the antenna to at least one of the at least two electrical conductor wirings, wherein the at least two electrical conductor wirings are configured to provide electrical connectivity for the sound transducer, wherein the said at least one of the at least two electrical conductor wirings is configured to couple to the antenna pattern to form at least part of an antenna arrangement. a sound transducer; a casing member, where the sound transducer is mounted to the casing member, and where the casing member is configured to at least partially form an enclosure for the sound transducer; an antenna integrally formed with the casing member, wherein the antenna forms an antenna pattern; at least two electrical conductor wirings (66,68) integrally formed with the casing member, wherein the at least two electrical conductor wirings are electrically connected to the sound transducer; and at least one coupling component configured to couple the antenna to at least one of the at least two electrical conductor wirings, wherein the at least two electrical conductor wirings are configured to provide electrical connectivity for the sound transducer, wherein the said at least one of the at least two electrical conductor wirings is configured to couple to the antenna pattern to form at least part of an antenna arrangement.
A tubeless fiber optic cable comprising: at least one optical fiber; a cable jacket, the cable jacket providing a tubeless cable construction having a cross-sectional shape defining a cavity along a longitudinal axis of the fiber optic cable; and a first strength member and a second strength member having a construction that includes a plurality of strands, the first strength member and the second strength member being disposed on opposite sides of the cavity, wherein the plurality of strands of the first strength member have an induced twist that is essentially balanced and the plurality of strands of the second strength member have an induced twist that is essentially balanced thereby inhibiting distortion of a cross-sectional shape of the cable jacket due to torsional forces from the strength members. at least one optical fiber; a cable jacket, the cable jacket providing a tubeless cable construction having a cross-sectional shape defining a cavity along a longitudinal axis of the fiber optic cable; and a first strength member and a second strength member having a construction that includes a plurality of strands, the first strength member and the second strength member being disposed on opposite sides of the cavity, wherein the plurality of strands of the first strength member have an induced twist that is essentially balanced and the plurality of strands of the second strength member have an induced twist that is essentially balanced thereby inhibiting distortion of a cross-sectional shape of the cable jacket due to torsional forces from the strength members.
An antibody or an antigen-binding portion thereof binding proliferating cell nuclear antigen ( PCNA) the antibody comprising three heavy chain CDRs and three light chain CDRs, wherein: CDR-H1 comprises the amino acid sequence selected from SEQ ID NO: 1 and SEQ ID NO: 21, CDR-H2 comprises the amino acid sequence as set forth in SEQ ID NO: 2, CDR-H3 comprises the amino acid sequence as set forth in SEQ ID NO: 3, CDR-L1 comprises the amino acid sequence as set forth in SEQ ID NO: 4, CDR-L2 comprises the amino acid sequence as set forth in SEQ ID NO: 5, and CDR-L3 comprises the amino acid sequence as set forth in SEQ ID NO: 6. CDR-H1 comprises the amino acid sequence selected from SEQ ID NO: 1 and SEQ ID NO: 21, CDR-H2 comprises the amino acid sequence as set forth in SEQ ID NO: 2, CDR-H3 comprises the amino acid sequence as set forth in SEQ ID NO: 3, CDR-L1 comprises the amino acid sequence as set forth in SEQ ID NO: 4, CDR-L2 comprises the amino acid sequence as set forth in SEQ ID NO: 5, and CDR-L3 comprises the amino acid sequence as set forth in SEQ ID NO: 6.
A composition comprising a therapeutically effective amount of a therapeutic agent and an intracellular permeation enhancing agent for use in the treatment of cancer in a subject, wherein the therapeutic agent comprises a platinum agent, wherein the intracellular permeation enhancing agent is selected from the group consisting of 6-oxo-6 phenylhexanoic acid, 8-Cyclohexyl-8-oxooctanoic acid, N -(8-[2-hydroxybenzoyl]amino)octanoic acid, and a functionally effective salt thereof, and wherein the composition is for use in intratumoral administration.
A control device for an automatic transmission for a vehicle, the control device comprising: a vehicle-propelling friction engagement element configured to be engaged when the vehicle starts traveling; an other friction engagement element (CL1, CL2, CL3); a vehicle-propelling friction engagement element temperature detector (208, 230) configured to detect or calculate a temperature of the vehicle-propelling friction engagement element; an input speed detector configured to detect an input speed of the automatic transmission; and a control unit configured to control supply of lubricant to the vehicle-propelling friction engagement element and the other friction engagement element (CL1, CL2, CL3), characterized in that the control unit is configured to switch a supply amount of lubricant to the vehicle-propelling friction engagement element according to the temperature of the vehicle-propelling friction engagement element, and configured to switch a supply amount of lubricant to the other friction engagement element (CL1, CL2, CL3) according to the input speed. a vehicle-propelling friction engagement element configured to be engaged when the vehicle starts traveling; an other friction engagement element (CL1, CL2, CL3); a vehicle-propelling friction engagement element temperature detector (208, 230) configured to detect or calculate a temperature of the vehicle-propelling friction engagement element; an input speed detector configured to detect an input speed of the automatic transmission; and a control unit configured to control supply of lubricant to the vehicle-propelling friction engagement element and the other friction engagement element (CL1, CL2, CL3), characterized in that the control unit is configured to switch a supply amount of lubricant to the vehicle-propelling friction engagement element according to the temperature of the vehicle-propelling friction engagement element, and configured to switch a supply amount of lubricant to the other friction engagement element (CL1, CL2, CL3) according to the input speed.
A method for transmitting OFDM signals in a wireless transmission system using a plurality of subcarriers for transmitting the OFDM signals, the method being carried out by a transmission device and comprising the steps of: detecting subcarrier channel characteristics for each of the plurality of subcarriers, changing a modulation scheme of said OFDM signals in the plurality of corresponding subcarrier channels to a higher modulation scheme or a lower modulation scheme in accordance with the detected characteristics of the corresponding plurality of subcarrier channels, and transmitting the OFDM signals by using the changed modulation scheme, characterized in that the modulation scheme of subcarriers having the highest power levels is increased, whereas the modulation scheme of subcarriers having the lowest power levels is decreased departing from a default modulation scheme, and that for the selection of the modulation schemes loading tables are calculated for the subcarriers, wherein the loading tables have respectively one entry for each subcarrier. detecting subcarrier channel characteristics for each of the plurality of subcarriers, changing a modulation scheme of said OFDM signals in the plurality of corresponding subcarrier channels to a higher modulation scheme or a lower modulation scheme in accordance with the detected characteristics of the corresponding plurality of subcarrier channels, and transmitting the OFDM signals by using the changed modulation scheme, characterized in that the modulation scheme of subcarriers having the highest power levels is increased, whereas the modulation scheme of subcarriers having the lowest power levels is decreased departing from a default modulation scheme, and that for the selection of the modulation schemes loading tables are calculated for the subcarriers, wherein the loading tables have respectively one entry for each subcarrier.
Distributor tray for a column intended for heat and/or material exchange between a gas and a liquid, comprising - at least one casing projecting from the upper part of said tray for the passage of said gas through said tray, - at least one means for the passage of said liquid through said tray, - at least one secondary distribution system projecting from the lower part of said tray for distributing said liquid coming from said liquid passage means, said secondary distribution system being formed by several perforated casings, each casing having substantially the shape of a trough, said liquid passage means comprising at least one chimney projecting from said upper part of said tray, the chimney having at least one radial orifice for inflow of the liquid and an opening for discharging said liquid onto said perforated casing, said perforated casings being disposed opposite said chimneys and not being disposed opposite the gas passage casings. - at least one casing projecting from the upper part of said tray for the passage of said gas through said tray, - at least one means for the passage of said liquid through said tray, - at least one secondary distribution system projecting from the lower part of said tray for distributing said liquid coming from said liquid passage means,
A wind turbine comprising one or more heat generating components, at least one closed cooling circuit comprising a circulating cooling medium, said cooling circuit being arranged to directly or indirectly cool one or more of said heat generating components, and wherein an ejector cooling system reduces the temperature of said cooling medium and wherein one or more of said heat generating components are arranged to provide at least a part of the heat for operating said ejector cooling system, and wherein said cooling circuit is arranged to cool a first heat generating component of said one or more heat generating components and wherein at least a part of said heat for operating said ejector cooling system is directly or indirectly provided by a second heat generating component of said one or more heat generating components.
A wireless packet communication method for transmitting a plurality of data packets simultaneously between a transmit-side station, STA, and a receive-side station, STA, by using a wireless channel and MIMO, the method comprising: including predetermined sequence numbers in said plurality of data packets, respectively, the predetermined sequence numbers being for distinguishing said plurality of data packets from each other; and transmitting the plurality of data packets simultaneously from the transmit-side STA by using a plurality of antennas according to MIMO and thereafter transmitting a NACK request packet from the transmit-side STA without using MIMO, i.e. using only one antenna, the NACK request packet being for requesting a NACK packet from the receive-side STA and containing information that corresponds to sequence numbers of the data packets transmitted simultaneously; and receiving the plurality of data packets by using a plurality of antennas according to MIMO and generating a single NACK packet at the receive-side STA, and transmitting the single NACK packet to the transmit-side STA from the receive-side STA without multiplexing it by MIMO, i.e. using only one antenna, the single NACK packet containing information that corresponds to sequence numbers of data packets not received successfully among the sequence numbers acquired by receiving said NACK request packet. including predetermined sequence numbers in said plurality of data packets, respectively, the predetermined sequence numbers being for distinguishing said plurality of data packets from each other; and transmitting the plurality of data packets simultaneously from the transmit-side STA by using a plurality of antennas according to MIMO and thereafter transmitting a NACK request packet from the transmit-side STA without using MIMO, i.e. using only one antenna, the NACK request packet being for requesting a NACK packet from the receive-side STA and containing information that corresponds to sequence numbers of the data packets transmitted simultaneously; and receiving the plurality of data packets by using a plurality of antennas according to MIMO and generating a single NACK packet at the receive-side STA, and transmitting the single NACK packet to the transmit-side STA from the receive-side STA without multiplexing it by MIMO, i.e. using only one antenna, the single NACK packet containing information that corresponds to sequence numbers of data packets not received successfully among the sequence numbers acquired by receiving said NACK request packet.