mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a further data block (FTSB), comprising: - receiving (REC-TST) a further timestamp transaction (FTST) with a first interface (IF.1), wherein the further timestamp transaction (FTST) comprises a hash (H) of a dataset and a further verification time, - receiving (REC-LDG1) a distributed ledger with the first interface (IF.1), wherein the distributed ledger comprises data blocks (TSB.1,..., TSB.3), - determining (DET-BCT1) an average block creation time based on the distributed ledger with the first computation unit (CU.1), - determining (DET-CT1) a first time (T.1) by querying a time server with a first computation unit (CU.1), - performing (CHK-1) a first check based on the first time (T.1) and the further verification time with the first computation unit (CU.1) to verify that there is an actual chance for creating a further data block (FTSB), wherein performing the first check (CHK-1) is furthermore based on the average block creation time, - in the case of a positive first check, determining (DET-TSB) the further data block (FTSB) based on the distributed ledger with the first computation unit (CU.1), wherein the further data block (FTSB) comprises the further timestamp transaction (FTST). - receiving (REC-TST) a further timestamp transaction (FTST) with a first interface (IF.1), wherein the further timestamp transaction (FTST) comprises a hash (H) of a dataset and a further verification time, - receiving (REC-LDG1) a distributed ledger with the first interface (IF.1), wherein the distributed ledger comprises data blocks (TSB.1,..., TSB.3), - determining (DET-BCT1) an average block creation time based on the distributed ledger with the first computation unit (CU.1), - determining (DET-CT1) a first time (T.1) by querying a time server with a first computation unit (CU.1), - performing (CHK-1) a first check based on the first time (T.1) and the further verification time with the first computation unit (CU.1) to verify that there is an actual chance for creating a further data block (FTSB), wherein performing the first check (CHK-1) is furthermore based on the average block creation time, - in the case of a positive first check, determining (DET-TSB) the further data block (FTSB) based on the distributed ledger with the first computation unit (CU.1), wherein the further data block (FTSB) comprises the further timestamp transaction (FTST).
A computer-implemented method for evaluating equipment in a data center, the equipment including a plurality of equipment racks, and at least one cooling provider, the method comprising: receiving data regarding each of the plurality of equipment racks and the at least one cooling provider, the data including a layout of the equipment racks and the at least one cooling provider, and a power draw value for each of the equipment racks; storing the received data; determining a cooling load for the at least one cooling provider; determining an estimated maximum air return temperature to the at least one cooling provider based at least in part on the layout and the power draw; determining a maximum cooler capacity for the at least one cooling provider based at least in part on the estimated maximum air return temperature and the received data regarding the at least one cooling provider; for each equipment rack, determining a maximum rack capacity based on the layout and the maximum cooler capacity by iteratively increasing a value of power for the equipment rack and determining an updated cooling load and airflow supply temperature for the at least one cooling provider until the updated cooling load exceeds the maximum cooler capacity while maintaining acceptable cooling performance of each equipment rack; and displaying an indication of the maximum rack capacity for at least one equipment rack. receiving data regarding each of the plurality of equipment racks and the at least one cooling provider, the data including a layout of the equipment racks and the at least one cooling provider, and a power draw value for each of the equipment racks; storing the received data; determining a cooling load for the at least one cooling provider; determining an estimated maximum air return temperature to the at least one cooling provider based at least in part on the layout and the power draw; determining a maximum cooler capacity for the at least one cooling provider based at least in part on the estimated maximum air return temperature and the received data regarding the at least one cooling provider; for each equipment rack, determining a maximum rack capacity based on the layout and the maximum cooler capacity by iteratively increasing a value of power for the equipment rack and determining an updated cooling load and airflow supply temperature for the at least one cooling provider until the updated cooling load exceeds the maximum cooler capacity while maintaining acceptable cooling performance of each equipment rack; and displaying an indication of the maximum rack capacity for at least one equipment rack.
A resin pipe fitting (A10, A20, A30, B10, B20, B30, C10, C20, C30, A100, A200, A300, B100, B200, B300, C100, C200, C300) comprising a main body (101, 101', 101", 131, 131', 131", 151, 151', 151", 101b, 101b', 101b", 131b, 131b', 131b", 151b, 151b', 151b") made of fluorine resin which includes a plurality of connection ports and a fluid flow-passage (1B, 1B', 1B", 31B, 31B', 31B", 51B, 51B', 51B") for connecting these connection ports in mutual communication, the main body (101, 101', 101", 131, 131', 131", 151, 151',151", 101b, 101b', 101b", 131b, 131b', 131b", 151b, 151b', 151b") being integrally formed with a wall (103, 103', 103", 133, 133', 133", 153, 153', 153") to partition the fluid flow-passage (1B, 1B', 1B", 31B, 31B', 31B", 51B, 51B', 51B") and with an orifice (102, 102',102", 132, 132',132", 152, 152', 152") for connecting the fluid flow-passages (1B, 1B', 1B", 31B, 31B', 31B", 51B, 51B', 51B") partitioned by the wall (103, 103', 103", 133, 133', 133", 153, 153', 153") to each other in mutual communication characterized in that each of all the surfaces of the wall (103, 103', 103", 133, 133', 133", 153, 153', 153") of the main body is provided with a circular plane (104, 134, 154) perpendicular to an axis of each of the fluid flow-passages (1B, 1B', 1B", 31B, 31B', 31B", 51B, 51B', 51B"), and has the axis of the fluid flow-passages (1B, 1B', 1B", 31B, 31B', 31B", 51B, 51B', 51B") as its center; the plane (104, 134, 154) has a periphery provided with a tapered surface (105, 135, 155) progressively increasing its diameter axially outwards and being in continuity with a peripheral wall surface of each of the fluid flow-passages (1B, 1B' 1B"); the wall (103, 103', 103", 133, 133', 133", 153, 153', 153") is formed constant in thickness except vicinities of the tapered surface; and the wall (103, 103', 130", 133, 133', 133", 153, 153', 153") is provided with the orifice (102, 102', 102", 132, 132', 132", 152, 152', 152") having the axis as its center axis in such a manner that a length of the orifice is kept constant.
A leadless pacing system comprising: a leadless pacing device configured to sense an electric cardiac signal and configured to operate in a sensing without pacing mode and an asynchronous ventricular pacing mode; and a processing module configured to: detect atrial oversensing while the leadless pacing device is in a sensing without pacing mode, determine, based on the electrical cardiac signal, whether intrinsic ventricular activity is occurring in conjunction with the atrial oversensing; characterised in that in response to determining intrinsic ventricular activity is occurring in conjunction with the atrial oversensing, control the leadless pacing device to continue operating in the sensing without pacing mode, and in response to determining intrinsic ventricular activity is not occurring in at least two successive cardiac cycles in conjunction with the atrial oversensing, control the leadless pacing device to switch to the asynchronous ventricular pacing mode and deliver a ventricular pacing pulse to the patient according to the asynchronous ventricular pacing mode, wherein the leadless pacing device senses the intrinsic activity of the heart for at least one full cardiac cycle in which a ventricular sense event is not detected during the sensing without pacing mode before delivering the ventricular pacing pulse according to the asynchronous ventricular pacing mode. a leadless pacing device configured to sense an electric cardiac signal and configured to operate in a sensing without pacing mode and an asynchronous ventricular pacing mode; and a processing module configured to: detect atrial oversensing while the leadless pacing device is in a sensing without pacing mode, detect atrial oversensing while the leadless pacing device is in a sensing without pacing mode, determine, based on the electrical cardiac signal, whether intrinsic ventricular activity is occurring in conjunction with the atrial oversensing; characterised in that in response to determining intrinsic ventricular activity is occurring in conjunction with the atrial oversensing, control the leadless pacing device to continue operating in the sensing without pacing mode, and in response to determining intrinsic ventricular activity is not occurring in at least two successive cardiac cycles in conjunction with the atrial oversensing, control the leadless pacing device to switch to the asynchronous ventricular pacing mode and deliver a ventricular pacing pulse to the patient according to the asynchronous ventricular pacing mode,
A tobacco material comprising an aqueous dispersion medium and tobacco particles that are dispersed in the dispersion medium and have an average particle size of 30 μm or less, wherein a hemicellulose content in the tobacco material is 0.8% by weight or less based on bone-dry tobacco particles.
An apparatus for the preparation and dispensing of bakery food products, in particular pizzas, comprising: - a magazine containing a plurality of food products having a storage compartment for storing said products in a respective semi-cooked condition; said magazine comprising a chamber internally defining said storage compartment and having at least one opening for connecting said loading station with said compartment, and a carousel arranged inside said compartment and rotatable about a respective longitudinal axis; said carousel having a plurality of retaining members for retaining at least one frozen food product, which are arranged along a substantially circular path defined by said carousel; and motor means associated with said carousel in order to rotate it under a plurality of operating conditions in which at least one retaining member is arranged in the area of said opening said apparatus also comprising: - cooling means arranged inside the magazine to keep the compartment of said food products at a predetermined freezing temperature; - a supply line for supplying said food products extending between a product loading station arranged in the area of the magazine and a dispensing station for dispensing the food products; said supply line comprising a first oven arranged downstream of the loading station and configured to thaw the food products leaving the magazine, and a second oven interposed between said first oven and said dispensing station and configured to cook the thawed food product at a given temperature depending on the type of the product itself; and - packaging means, located in the area of said dispensing station to arrange each product leaving the supply line inside a respective package; characterized in that each retaining member comprises a plurality of gripping elements mutually overlapped and movable along a closed loop path in a direction parallel to said longitudinal axis of the carousel. - a magazine containing a plurality of food products having a storage compartment for storing said products in a respective semi-cooked condition; - cooling means arranged inside the magazine to keep the compartment of said food products at a predetermined freezing temperature; - a supply line for supplying said food products extending between a product loading station arranged in the area of the magazine and a dispensing station for dispensing the food products; - packaging means, located in the area of said dispensing station to arrange each product leaving the supply line inside a respective package;
A grill comprising: an upper platen assembly including an upper grilling plate; a lower platen assembly including a lower grilling plate opposite the upper grilling plate, the upper grilling plate being separated from the lower grilling plate by a distance; a first one or more actuators operably connected to the upper platen assembly and a second one or more actuators operably connected to the lower platen assembly, wherein the first and second one or more actuators are configured to adjust the distance; and a conveyor belt located between the upper grilling plate and the lower grilling plate, wherein the conveyer belt is configured to move one or more food products between the upper grilling plate and the lower grilling plate, wherein the movement of the upper platen assembly and the lower platen assembly to adjust the distance causes the upper platen assembly and the lower platen assembly to move with respect to the conveyor belt between the upper grilling plate and the lower grilling plate, wherein each of the upper grilling plate and the lower grilling plate moves between a cooking position and a non-cooking position to adjust the distance, wherein the lower platen assembly is configured to be lowered and raised to move between the cooking position and non-cooking position and wherein in the non-cooking position the lower grilling plate is spaced from the conveyor belt. an upper platen assembly including an upper grilling plate; a lower platen assembly including a lower grilling plate opposite the upper grilling plate, the upper grilling plate being separated from the lower grilling plate by a distance; a first one or more actuators operably connected to the upper platen assembly and a second one or more actuators operably connected to the lower platen assembly, wherein the first and second one or more actuators are configured to adjust the distance; and a conveyor belt located between the upper grilling plate and the lower grilling plate, wherein the conveyer belt is configured to move one or more food products between the upper grilling plate and the lower grilling plate, wherein the movement of the upper platen assembly and the lower platen assembly to adjust the distance causes the upper platen assembly and the lower platen assembly to move with respect to the conveyor belt between the upper grilling plate and the lower grilling plate, wherein each of the upper grilling plate and the lower grilling plate moves between a cooking position and a non-cooking position to adjust the distance, wherein the lower platen assembly is configured to be lowered and raised to move between the cooking position and non-cooking position and wherein in the non-cooking position the lower grilling plate is spaced from the conveyor belt.
A computer-implemented method for generating a circuit description for a multi-die field-programmable gate array, FPGA, comprising a first FPGA die, a second FPGA die and at least a third FPGA die, wherein the at least third FPGA die is located between the first FPGA die and the second FPGA die and the circuit description is a netlist description, the method being performed in an FPGA design tool and comprising: - automatically evaluating a first partition, a second partition and a third partition of a partitioned circuit description, the first partition being associated with the first FPGA die, the second partition being associated with the second FPGA die and the third partition being associated with the at least third FPGA die; and - based on the automated evaluation, inserting at least one multiplexing element into the first partition, a corresponding de-multiplexing element into the second partition and an intermediate pipeline register, which is coupled between the at least one multiplexing element and the corresponding de-multiplexing element, into the third partition, wherein the at least one multiplexing element, the corresponding de-multiplexing element and the intermediate pipeline register are designed for performing a time-multiplexed transmission of a plurality of logical signals over respective physical inter-die connections from the first FPGA die to the second FPGA die; wherein - the evaluating step comprises identifying a set of logical signals in the circuit description being emitted from the first partition and being received in the second partition, and wherein the at least one multiplexing element and the corresponding de-multiplexing element are inserted for a subset of the set of identified logical signals. - automatically evaluating a first partition, a second partition and a third partition of a partitioned circuit description, the first partition being associated with the first FPGA die, the second partition being associated with the second FPGA die and the third partition being associated with the at least third FPGA die; and - based on the automated evaluation, inserting at least one multiplexing element into the first partition, a corresponding de-multiplexing element into the second partition and an intermediate pipeline register, which is coupled between the at least one multiplexing element and the corresponding de-multiplexing element, into the third partition, wherein the at least one multiplexing element, the corresponding de-multiplexing element and the intermediate pipeline register are designed for performing a time-multiplexed transmission of a plurality of logical signals over respective physical inter-die connections from the first FPGA die to the second FPGA die; wherein - the evaluating step comprises identifying a set of logical signals in the circuit description being emitted from the first partition and being received in the second partition, and wherein the at least one multiplexing element and the corresponding de-multiplexing element are inserted for a subset of the set of identified logical signals.
A pulse oximetry device comprising at least two light sources (50A, 50B) having different wavelengths and at least one detector responsive to said different wavelengths, characterised in that said device further comprises: a dome-shaped or cone-shaped structure adapted to be placed over and receive the distal end of the ulna bone and to fixate the device at a fixated area above the distal end of the ulna; wherein said at least two light sources (50A, 50B) and/or said at least one detector is positioned within said structure; and wherein said at least one detector is adapted to detect light for providing pulse oximetry measurements, said detected light being trans-illumination light originating from said at least two light sources and reflecting off a surface of the distal end of the ulna at an angle larger than 0° and smaller than 180° and passing through the fixated area. a dome-shaped or cone-shaped structure adapted to be placed over and receive the distal end of the ulna bone and to fixate the device at a fixated area above the distal end of the ulna; wherein said at least two light sources (50A, 50B) and/or said at least one detector is positioned within said structure; and wherein said at least one detector is adapted to detect light for providing pulse oximetry measurements, said detected light being trans-illumination light originating from said at least two light sources and reflecting off a surface of the distal end of the ulna at an angle larger than 0° and smaller than 180° and passing through the fixated area.
Built-in part, for example for a kitchen appliance, comprising - a shaft, - two rolling bearings (3, 4) positioned axially one behind the other, - a receiving part and - a spacer, wherein each of the rolling bearings (3, 4) comprises an inner ring (12, 13) and an outer ring (14, 16), wherein the shaft is mounted by means of the rolling bearings (3, 4) in the pot-shaped receiving part, through which the shaft passes and which has a passage formed centrally in the bottom of the pot for the shaft, wherein the two outer rings (14, 16) are glued to the receiving part and the outer rings (14, 16) have different external diameters, whereas the inner rings (12, 13) have the same internal diameter, wherein the outer ring having an increased diameter is accommodated in an axially widened expanded region of the inside of the pot, which expanded region opens towards the pot opening, whereas the outer ring of the lower rolling bearing is directly supported on the inner wall of the pot, wherein, furthermore, starting from a pot-opening plane, the expanded region has a greater axial length than the outer ring lying therein that is supported on the wall of the expanded region, wherein, furthermore, the lower rolling bearing is supported on the bottom of the pot and the rolling bearings (3, 4) are mutually spaced in the extension direction of the shaft, wherein a spacer is provided between the rolling bearings (3, 4), through which spacer the shaft passes and which spacer supports the rolling bearings (3, 4) in the region of the inner rings, wherein, furthermore, the upper outer ring that is associated with the output end of the shaft is held on the associated inner face of the receiving part merely by glueing and, when viewed in the axial direction of the shaft, before the adhesive has cured, can be displaced in its axial position until the predefined bearing pretension is achieved. - a shaft, - two rolling bearings (3, 4) positioned axially one behind the other, - a receiving part and - a spacer,
An elevator connector provided with an opening for passage of a pipe having a socket, wherein a locking jaw complementary fitting in the elevator connector is displaceable between an inactive position and an active position, the locking jaw being arranged to come to a stop against the socket when the pipe is lifted, characterised in that the elevator connector is provided with several connected, different locking jaws (8a, 8b, 12a, 12b, 16a, 16b) fitting different pipe dimensions.
A light emitting device comprising: a light emitting structure comprising a n-type semiconductor layer, an active layer and a p-type semiconductor layer; a first ohmic layer and a first electrode provided on the n-type semiconductor layer; and a second electrode (140∼170) provided on the p-type semiconductor layer wherein the thickness of the first ohmic layer is 0.5 nanometer to 3.0 micrometers, characterized in that a contact area between the n-type semiconductor layer and the first ohmic layer comprises oxygen at 5% or more of an atomic ratio produced by plasma-treating the contact area of the n-type semiconductor layer in an oxygen atmosphere, and wherein the first ohmic layer is formed of at least one material selected from a group consisted of W and V. a light emitting structure comprising a n-type semiconductor layer, an active layer and a p-type semiconductor layer; a first ohmic layer and a first electrode provided on the n-type semiconductor layer; and a second electrode (140∼170) provided on the p-type semiconductor layer wherein the thickness of the first ohmic layer is 0.5 nanometer to 3.0 micrometers, characterized in that a contact area between the n-type semiconductor layer and the first ohmic layer comprises oxygen at 5% or more of an atomic ratio produced by plasma-treating the contact area of the n-type semiconductor layer in an oxygen atmosphere, and wherein the first ohmic layer is formed of at least one material selected from a group consisted of W and V.