mhurhangee/ep-ind-claims huggingface dataset:
A stackup of display pixels, the stackup comprising: first, second, third, fourth and fifth regions each having a plurality of display pixels (515, 517), the plurality of display pixels having circuit elements, the first, second, third, fourth and fifth regions arranged in order along a first direction; wherein the circuit elements of the plurality of display pixels in the first region are electrically connected together; wherein the circuit elements of the plurality of display pixels in the fifth region are electrically connected together; wherein the second region is disposed between the first and third regions and comprises a grounding region; wherein the fourth region is disposed between the third and fifth regions and comprises a grounding region; wherein at least one conductive pathway connects the circuit elements of the first region to the circuit elements of the fifth region; wherein the at least one conductive pathway is disposed across the plurality of display pixels of the second, third and fourth regions without electrically connecting to the circuit elements of the second, third or fourth regions; and wherein the first and fifth regions comprise drive regions, and the third region comprises a sense region. first, second, third, fourth and fifth regions each having a plurality of display pixels (515, 517), the plurality of display pixels having circuit elements, the first, second, third, fourth and fifth regions arranged in order along a first direction; wherein the circuit elements of the plurality of display pixels in the first region are electrically connected together; wherein the circuit elements of the plurality of display pixels in the fifth region are electrically connected together; wherein the second region is disposed between the first and third regions and comprises a grounding region; wherein the fourth region is disposed between the third and fifth regions and comprises a grounding region; wherein at least one conductive pathway connects the circuit elements of the first region to the circuit elements of the fifth region; wherein the at least one conductive pathway is disposed across the plurality of display pixels of the second, third and fourth regions without electrically connecting to the circuit elements of the second, third or fourth regions; and wherein the first and fifth regions comprise drive regions, and the third region comprises a sense region.
A monoclonal anti-CD32b antibody, wherein the antibody comprises: a) a VH region comprising the CDR1, 2 and 3 sequences of SEQ I D NO:10, 11 and 12 and a VL region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:14, 15 and 16, b) a VH region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:26, 27 and 28 and a VL region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:30, 31 and 32, c) a VH region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:34, 35 and 36 and a VL region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:38, 39 and 40, or d) a VH region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:42, 43 and 44 and a VL region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:14, 15 and 16. a) a VH region comprising the CDR1, 2 and 3 sequences of SEQ I D NO:10, 11 and 12 and a VL region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:14, 15 and 16, b) a VH region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:26, 27 and 28 and a VL region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:30, 31 and 32, c) a VH region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:34, 35 and 36 and a VL region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:38, 39 and 40, or d) a VH region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:42, 43 and 44 and a VL region comprising the CDR1, 2 and 3 sequences of SEQ ID NO:14, 15 and 16.
A method of optically writing to a read light valve comprising a photoreceptor layer and an electro-optic layer, the method comprising, during a read valve video frame (1412, 1416): applying a selected write cell voltage at a pixel location of an optical write valve; after the pixel location achieves an optically stable state, illuminating the pixel location with a light source pulse modulated in amplitude or duration or both so as to emit from the pixel location a write light pulse; directing the write light pulse to a localized portion of said photoreceptor layer of an optical read light valve; and sequentially repeating during said frame the applying, illuminating and directing for a plurality of said selected write cell voltages and modulated light source pulses; and further comprising, for the duration of the frame, applying a drive voltage to the combined photoreceptor and electro-optic layers of the read light valve and continuously integrating, at the localized portion of the optical read light valve over the frame, electrical charges induced in said photoreceptor layer and corresponding to optical powers of the write light pulses; and wherein the resulting modulation of the electro-optic layer of the optical read valve as a function of the integrated optical power of the write light pulses results in a monotonic control of the read-light output intensity. applying a selected write cell voltage at a pixel location of an optical write valve; after the pixel location achieves an optically stable state, illuminating the pixel location with a light source pulse modulated in amplitude or duration or both so as to emit from the pixel location a write light pulse; directing the write light pulse to a localized portion of said photoreceptor layer of an optical read light valve; and sequentially repeating during said frame the applying, illuminating and directing for a plurality of said selected write cell voltages and modulated light source pulses; and further comprising, for the duration of the frame, applying a drive voltage to the combined photoreceptor and electro-optic layers of the read light valve and continuously integrating, at the localized portion of the optical read light valve over the frame, electrical charges induced in said photoreceptor layer and corresponding to optical powers of the write light pulses; and wherein the resulting modulation of the electro-optic layer of the optical read valve as a function of the integrated optical power of the write light pulses results in a monotonic control of the read-light output intensity.
A porous zirconia article for use in the dental or orthodontic field, the porous zirconia article comprising: ZrO 2: 80 to 87 wt.%, Y 2 O 3: 3 to 5 wt.%, Al 2 O 3: 10 to 14 wt.%, wt.% with respect to the weight of the porous zirconia article, the porous zirconia article being characterized by the following parameters in combination: density: from 40 to 60% of theoretical density; average connected pore diameter: from 2 to 100 nm; as measured according to the description; BET surface from 11 to 100 m 2 /g; Vickers hardness: from 10 to 100 HV1. ZrO 2: 80 to 87 wt.%, Y 2 O 3: 3 to 5 wt.%, Al 2 O 3: 10 to 14 wt.%, wt.% with respect to the weight of the porous zirconia article, the porous zirconia article being characterized by the following parameters in combination: wt.% with respect to the weight of the porous zirconia article, the porous zirconia article being characterized by the following parameters in combination: density: from 40 to 60% of theoretical density; average connected pore diameter: from 2 to 100 nm; as measured according to the description; BET surface from 11 to 100 m 2 /g; Vickers hardness: from 10 to 100 HV1.
Coffee machine comprising at least one removable portafilter for the brewing process that is insertable into a holder provided therefor on the coffee machine, first means (28,...31) for producing and dispensing hot water under pressure, as well as at least one coffee grinder, wherein second means (33; 33a-e; 41) for the repeated pressure-tight closing and opening of the portafilter inserted into the holder are provided, wherein the second means (33; 33a-e, 41) have a distributor filter element (33; 33a-e), which can be moved back and forth between a first position in which the portafilter is open and can be filled with coffee grinds and a second position in which the distributor filter element (33; 33a-e) closes the portafilter in a pressure-tight manner, and that third means are provided for introducing coffee grinds from the coffee grinder into the opened portafilter inserted in the holder, characterised in that for moving the distributor filter element (33; 33a-d) between a first and second position an electrically or hydraulically operating actuator unit is provided.
A composition, comprising: (i) a lipid particle, comprising one or more lipids conjugated to polyethylene glycol, wherein the PEG is present at a concentration between about 0.5 molar percent and about 20 molar percent; and (ii) mannose-1-phosphate encapsulated in the lipid particle. (i) a lipid particle, comprising one or more lipids conjugated to polyethylene glycol, wherein the PEG is present at a concentration between about 0.5 molar percent and about 20 molar percent; and (ii) mannose-1-phosphate encapsulated in the lipid particle.
A drive system for driving an automatic welding machine designed to join the edges of sealing sheets, the automatic welding machine comprising at least two pressing/advancing rollers (3, 4) located vertically opposite one another, an electric drive motor for at least one of the pressing/advancing rollers (3, 4) and a transmission gear mechanism connected downstream of the drive motor, an upper pressing/advancing roller being disposed rotatably about an upper roller rotational axis on a tensioning arm of the automatic welding machine and a lower pressing/advancing roller being disposed rotatably about a lower roller rotational axis on a frame of the automatic welding machine, the tensioning arm being mounted pivotably about a tensioning arm axis on the frame of the automatic welding machine, and the frame being supported by at least two drive rollers (12, 13), the drive motor and the transmission gear mechanism being rigidly attached to the frame, the drive motor comprising a motor armature rotating about a protruding rotational shaft, and the transmission gear mechanism comprising a rotatable protruding input shaft and a rotatable protruding output shaft, and the tensioning arm axis, the roller rotational axes (8, 10), the rotational shaft, the input shaft and the output shaft being disposed parallel to one another, characterized in that the rotational shaft of the motor armature and the output shaft of the transmission gear mechanism extend next to, and laterally offset from, one another, wherein at least the output shaft is disposed at the level of the tensioning arm axis of the tensioning arm.
Composition for the preparation of physical solar filters, comprising an organic matrix formed by polymer molecules, onto which are linked nanoparticles of hydroxyapatite substituted with titanium and/or iron ions, in which phosphorus is partially replaced by titanium in an amount between 8 and 50% atomic with respect to phosphorus, and/or in which calcium is partially replaced by iron in an amount between 2 and 40% atomic with respect to calcium, and wherein the amount of the organic matrix is between 5 and 60% by weight and the amount of substituted hydroxyapatite is between 35 and 90% by weight, the remaining part being constituted by water.
A gripping posture evaluation apparatus, comprising: a gripping posture deriver configured to derive a gripping posture in which a robot hand included in a robot grips a workpiece; a load index calculator configured to calculate a load index value indicating a load to be applied to the robot gripping and transporting the workpiece with the robot hand in the gripping posture derived by the gripping posture deriver; and a gripping posture evaluator configured to evaluate the gripping posture by determining whether the gripping posture is appropriate based on the load index value calculated by the load index calculator, wherein in response to the gripping posture evaluator determining that the gripping posture is inappropriate, derivation of a new gripping posture by the gripping posture deriver, calculation of a load index value by the load index calculator, and evaluation by the gripping posture evaluator are repeated. a gripping posture deriver configured to derive a gripping posture in which a robot hand included in a robot grips a workpiece; a load index calculator configured to calculate a load index value indicating a load to be applied to the robot gripping and transporting the workpiece with the robot hand in the gripping posture derived by the gripping posture deriver; and a gripping posture evaluator configured to evaluate the gripping posture by determining whether the gripping posture is appropriate based on the load index value calculated by the load index calculator, wherein in response to the gripping posture evaluator determining that the gripping posture is inappropriate, derivation of a new gripping posture by the gripping posture deriver, calculation of a load index value by the load index calculator, and evaluation by the gripping posture evaluator are repeated.
A winding device for being used on a sun protection device, the winding device comprising a hollow winding shaft on which a sun protection blind is capable of being wound, a support element which is mounted at least on one side in a rotationally fixed manner and on which the winding shaft is rotatably mounted by means of pivot bearings being disposed inside the winding shaft, and the support element having a neutral bending fibre running parallel to the longitudinal axis of the winding shaft, characterised in that a traction or pressure member is provided on or in the support element, at least a section of said traction or pressure member running outside the neutral bending fibre of the support element, the traction or pressure member being capable of being clamped under traction or pressure between two end pieces (09, 10) fixed on the support element, an adjusting element being provided between at least one end piece on the support element on the one hand and the traction or pressure member on the other hand, the length of the traction or pressure member or the clamping length between the end bearings (09, 10) being changeable by means of said adjusting element.
An inverter-integrated electric compressor comprising a compressing mechanism portion which sucks, compresses and discharges fluid, a motor which drives the compressing mechanism portion, a body casing in which the compressing mechanism portion and the motor are incorporated, the body casing being hermetically closed, a suction passage formed in one of ends of the body casing, and an inverter case in which an inverter for driving the motor is incorporated, wherein the body casing has a suction passage-forming surface in which the suction passage is provided, the suction passage-forming surface is cooled by a refrigerant flowing through the suction passage, at least a portion of the inverter case is brought into contact with the suction passage-forming surface and the inverter case is fixed to the suction passage-forming surface, characterized in that the inverter case rotates to an arbitrary position with respect to the body casing and the inverter case can be fixed to the body casing.
Inverter comprising: - input terminals (IT+, IT-); - output terminals; - controllable switches (Q, Q') connected to the input terminals (IT+, IT-) and to the output terminals; - a control device configured to control the controllable switches (Q, Q') so as to convert a DC voltage at the input terminals (IT+, IT-) into an AC voltage at the output terminals intended to drive an asynchronous electric motor to achieve a target torque (T*), selectively: - in a first mode of operation in which the target torque (T*) is determined according to a torque determination method, and - in response to a rotor temperature (Tr), in a second mode of operation in which the target torque (T*) remains determined according to the torque determination method of the first mode of operation, wherein the control device is configured to pass from the first mode of operation to the second mode of operation when the rotor temperature (Tr) passes above a predefined threshold, characterized in that, in the second mode of operation, losses in the rotor are decreased relative to the first mode of operation, and, in the second mode of operation, the control device is configured to control the controllable switches (Q, Q') in order to decrease a slip of the motor, relative to the first mode of operation. - input terminals (IT+, IT-); - output terminals; - controllable switches (Q, Q') connected to the input terminals (IT+, IT-) and to the output terminals; - a control device configured to control the controllable switches (Q, Q') so as to convert a DC voltage at the input terminals (IT+, IT-) into an AC voltage at the output terminals intended to drive an asynchronous electric motor to achieve a target torque (T*), selectively: - in a first mode of operation in which the target torque (T*) is determined according to a torque determination method, and - in response to a rotor temperature (Tr), in a second mode of operation in which the target torque (T*) remains determined according to the torque determination method of the first mode of operation, wherein the control device is configured to pass from the first mode of operation to the second mode of operation when the rotor temperature (Tr) passes above a predefined threshold, characterized in that, in the second mode of operation, losses in the rotor are decreased relative to the first mode of operation, and, in the second mode of operation, the control device is configured to control the controllable switches (Q, Q') in order to decrease a slip of the motor, relative to the first mode of operation. - in a first mode of operation in which the target torque (T*) is determined according to a torque determination method, and - in response to a rotor temperature (Tr), in a second mode of operation in which the target torque (T*) remains determined according to the torque determination method of the first mode of operation,
A spool valve, comprising: a valve body; and a spool housed in the valve body so as to be movable in an axial direction, the spool having a load pressure acting surface and a pilot pressure acting surface, the load pressure acting surface being formed on one axial end side of the spool and configured to be acted on by a load pressure, the pilot pressure acting surface being formed on another axial end side of the spool and configured to be acted on by a pilot pressure, wherein the spool includes a spool body and a shoulder radially enlarged from the spool body, the shoulder has a first acting surface positioned on the other axial end side and a second acting surface positioned on the one axial end side, and the spool has a first communication hole and a second communication hole formed therein, and the first communication hole communicating between the load pressure acting surface and the first acting surface of the shoulder, the second communication hole communicating between the pilot pressure acting surface and the second acting surface of the shoulder; characterized in that an area of the load pressure acting surface is equal to an area of the first acting surface of the shoulder, and an area of the pilot pressure acting surface is smaller than an area of the second acting surface of the shoulder. a valve body; and a spool housed in the valve body so as to be movable in an axial direction, the spool having a load pressure acting surface and a pilot pressure acting surface, the load pressure acting surface being formed on one axial end side of the spool and configured to be acted on by a load pressure, the pilot pressure acting surface being formed on another axial end side of the spool and configured to be acted on by a pilot pressure, wherein the spool includes a spool body and a shoulder radially enlarged from the spool body, the shoulder has a first acting surface positioned on the other axial end side and a second acting surface positioned on the one axial end side, and the spool has a first communication hole and a second communication hole formed therein, and the first communication hole communicating between the load pressure acting surface and the first acting surface of the shoulder, the second communication hole communicating between the pilot pressure acting surface and the second acting surface of the shoulder; characterized in that an area of the load pressure acting surface is equal to an area of the first acting surface of the shoulder, and an area of the pilot pressure acting surface is smaller than an area of the second acting surface of the shoulder.
Connection assembly for use in an axial piston machine, wherein the connection assembly has a feed pump and a main body, wherein the main body is equipped with at least one fluid connection, wherein, in the main body, a drive shaft is received so as to be rotatable with respect to an axis of rotation, wherein the feed pump is designed as an internal gear pump or as a vane-type pump, wherein said feed pump has an inner part and an outer part, wherein the inner part is connected rotationally conjointly to the drive shaft, wherein the outer part annularly surrounds the inner part, wherein a separate receiving part with a first recess is provided, wherein the outer part and the inner part are received in the first recess such that a pump assembly comprising the inner part, the outer part and the receiving part defines a planar sealing surface which bears at least indirectly against the main body, wherein the main body has a second recess in which the pump assembly is received at least in certain portions, wherein a separate cover is provided which covers the second recess and the pump assembly in each case at least in certain portions, wherein said cover bears against the main body, characterized in that an elastic element is installed under preload between the cover and the receiving part such that a corresponding preload force is supported at least indirectly on the main body via the sealing surface, wherein the stated preload force is, in the region of the receiving part and/or of the outer part, supported on the main body in static fashion.
An airway adaptor (8, 108, 108') providing a measurement chamber for gas measurement by a mainstream gas analyzer, the airway adaptor comprising: a body (17, 117) having a first end (18, 118) and a second end (19, 119) and configured to connect in a ventilation circuit carrying ventilation gas to and from a patient; a primary path (140, 140') that includes the measurement chamber and is configured to allow the ventilation gas to pass between the first end to the second end; at least one secondary path (150, 150') separated from the primary path and located on an outer perimeter of the primary path; wherein the at least one secondary path is configured to contain liquid away from the measurement chamber, wherein the at least one secondary path has a narrowed section (152, 152') comprising a portion of a length of the secondary path, the narrowed section being configured to restrict flow rate therethrough. a body (17, 117) having a first end (18, 118) and a second end (19, 119) and configured to connect in a ventilation circuit carrying ventilation gas to and from a patient; a primary path (140, 140') that includes the measurement chamber and is configured to allow the ventilation gas to pass between the first end to the second end; at least one secondary path (150, 150') separated from the primary path and located on an outer perimeter of the primary path; wherein the at least one secondary path is configured to contain liquid away from the measurement chamber, wherein the at least one secondary path has a narrowed section (152, 152') comprising a portion of a length of the secondary path, the narrowed section being configured to restrict flow rate therethrough.