mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor device, comprising: a semiconductor substrate ; first and second metallization layers , the second metallization layer being spaced apart from the semiconductor substrate with the first metallization layer therebetween, wherein the second metallization layer includes a first portion and a second portion extending laterally from the first portion; a dielectric between the first and second metallization layers, the dielectric having a first surface in direct contact with the first metallization layer, a second surface in direct contact with the second portion of the second metallization layer, and a conductive via directly between the first metallization layer and the second portion of the second metallization layer; and a conductive interconnect extending at least partially through the semiconductor substrate and including a first end and a second end, the first end of the conductive interconnect being in direct contact with the first portion of the second metallization layer, the second end being opposite the first end, wherein the first metallization layer is in electrical contact with the conductive interconnect via the second metallization layer. a semiconductor substrate ; first and second metallization layers , the second metallization layer being spaced apart from the semiconductor substrate with the first metallization layer therebetween, wherein the second metallization layer includes a first portion and a second portion extending laterally from the first portion; a dielectric between the first and second metallization layers, the dielectric having a first surface in direct contact with the first metallization layer, a second surface in direct contact with the second portion of the second metallization layer, and a conductive via directly between the first metallization layer and the second portion of the second metallization layer; and a conductive interconnect extending at least partially through the semiconductor substrate and including a first end and a second end, the first end of the conductive interconnect being in direct contact with the first portion of the second metallization layer, the second end being opposite the first end, wherein the first metallization layer is in electrical contact with the conductive interconnect via the second metallization layer.
A compression heat-generation detector, comprising one set or multi-sets of detecting units, characterized in that the detecting unit includes a vertical compression device, a vertical compensation device and a synchronization device for a core portion central temperature sensor, wherein the vertical compression device and the vertical compensation device are fixed to an upper frame , respectively, wherein a first transition column is disposed between a pressing plate of the vertical compression device via a middle support for a rubber sample and a supporting plate via a pressure sensor , wherein the synchronization device for the core portion central temperature sensor is mounted between the pressing plate and the supporting plate of the vertical compensation device via a second transition column which has the same mechanical properties as the first transition column and a cushion block which has the same mechanical properties as the pressure sensor , wherein the second transition column is disposed between the pressing plate via the synchronization device and the cushion block , and penetrates through a bore of the middle support , wherein the vertical compression device includes a compression motor , a stroke adjusting mechanism , a connecting rod , an end connecting member , two long guide shafts , and the pressing plate , wherein the vertical compensation device includes a compensation motor , two short guide shafts , a lead screw , a lead screw nut , the supporting plate , and the middle support , wherein the synchronization device for the core portion central temperature sensor includes a core portion central temperature sensor , a lower spring base , an upper spring base , a lower spring , an upper spring , and a sensor fixing ring , wherein the compression heat-generation detector includes a bottom temperature sensor mounted to the middle support _in an upwardly inclined direction of 45 degrees and configured to measure a bottom temperature of the sample, and wherein a displacement sensor is mounted to the upper frame and an induction block is mounted to the supporting plate so that it is movable vertically together with the supporting plate .
Crystalline Form E of 6-(cyclopropanecarboxamido)-4-((2-methoxy-3-(1-methyl-1H-1,2,4-triazol-3-yl)phenyl) amino)-N-(methyl-d 3 )pyridazine-3-carboxamide, characterized by at least one of the following: (i) unit cell parameters substantially equal to the following: a = 10.41 ± 0.10 Å b = 12.65 ± 0.10 Å c = 15.70 ± 0.10 Å α = 90.0 ° β = 103.5 ± 1.0 ° γ = 90.0 ° Space group: P 2 1 / n Molecules per unit cell (Z): 4, wherein the unit cell parameters of Form E are measured at a temperature of about 100 K; (ii) a powder X-ray diffraction pattern comprising two or more 2θ values in degrees (CuKα) selected from: 9.0±0.2, 11.3±0.2, 15.2±0.2, and 21.1±0.2, wherein the PXRD pattern is measured at room temperature; (iii) an observed powder X-ray diffraction pattern substantially as shown in FIG. 1, wherein the PXRD pattern is measured at room temperature; and (iv) an endotherm with peak max in the range of from about 249 °C to about 253 °C. (i) unit cell parameters substantially equal to the following: a = 10.41 ± 0.10 Å b = 12.65 ± 0.10 Å c = 15.70 ± 0.10 Å α = 90.0 ° β = 103.5 ± 1.0 ° γ = 90.0 ° Space group: P 2 1 / n Molecules per unit cell (Z): 4, wherein the unit cell parameters of Form E are measured at a temperature of about 100 K; Space group: P 2 1 / n Molecules per unit cell (Z): 4, (ii) a powder X-ray diffraction pattern comprising two or more 2θ values in degrees (CuKα) selected from: 9.0±0.2, 11.3±0.2, 15.2±0.2, and 21.1±0.2, wherein the PXRD pattern is measured at room temperature; (iii) an observed powder X-ray diffraction pattern substantially as shown in FIG. 1, wherein the PXRD pattern is measured at room temperature; and (iv) an endotherm with peak max in the range of from about 249 °C to about 253 °C.
Electric control mechanism provided with a support and a button , wherein said control mechanism comprises a central body arranged on the support , wherein said button is borne by the central body and has a degree of freedom in rotation relative to the central body , wherein a remote axis of rotation (AXROTD) of said button is parallel to a central axis of rotation (AXROTC), a first return means being interposed between the central body and the button and exerting a force on the button to position it in a neutral position (POSN), a second return means being interposed between the central body and the support and exerting a force on the central body to position said button in said neutral position (POSN); characterized in that the central body has only one degree of freedom in rotation about the central axis of rotation (AXROTC) relative to the support , wherein said button has only one degree of freedom in rotation relative to the central body around said offset axis of rotation (AXROTD), wherein said control mechanism comprises two primary electrical switches interposed between the button and the central body on either side of a plane containing said central axis of rotation (AXROTC) and said offset axis of rotation (AXROTD) for detecting a rotation of the button relative to the central body , wherein said control mechanism comprises two secondary electrical switches interposed between the support and the central body on either side of said plane to detect a rotation of the central body relative to the support ; and wherein the first return means has a stiffness less than the stiffness of the second return means .
An elevator safety system, comprising a safety unit having a safety device and a trigger , the trigger is connected with the safety device and outputs an acting force from its output end to the safety device for actuating the safety device to perform safety operation to the elevator, wherein the safety unit further comprises a force amplifying device provided between the trigger and the safety device for amplifying the acting force output from the output end and then transmitting the amplified acting force to the safety device ; characterized in that the force amplifying device is a rack and gear transmission mechanism, which comprises: a gear set having at least a first gear and a second gear ; a first rack meshed with the first gear and connected with the output end ; and a second rack meshed with the second gear and connected with the safety device to transmit the amplified acting force thereto. a gear set having at least a first gear and a second gear ; a first rack meshed with the first gear and connected with the output end ; and a second rack meshed with the second gear and connected with the safety device to transmit the amplified acting force thereto.
A tracheostomy tube assembly including an outer tracheostomy tube and an inner cannula removably inserted to extend along the bore of the tracheostomy tube, the tracheostomy tube including a male tapered connector at its machine end adapted to mate with a cooperating female connector, characterised in that that the male connector is attached with a hub of the tube in a manner that allows the connector to rotate relative to the hub about the axis of the hub through at least a limited angle, that the male connector has a surface formation on an inner surface, and that the inner cannula has a surface formation on its outer surface adapted to engage with the surface formation on the connector in such a manner that rotating the connector in one direction relative to the tracheostomy tube pulls the inner cannula into the tracheostomy tube and rotating in the opposite direction pushes the inner cannula out of the tracheostomy tube.
An installation for connecting electronic assemblies and/or for manufacturing workpieces , in particular a sintering or soldering installation , comprising a plurality of modules for connecting the electronic assemblies and/or for manufacturing the workpieces , wherein at least one module is configured as a loading station and one module as an unloading station , or one module is configured as a loading station and unloading station , wherein at least one further module is configured as a manufacturing station , and a manufacturing workpiece carrier is provided for accommodating the electronic assemblies and/or the workpieces , which is movable in automated manner by way of a conveying unit from the loading station via the manufacturing station to the unloading station , wherein the installation is configured in particular for assembly line production, characterized in that a foil/film transfer unit is included with at least one, in particular two or more foil/film transfer means , which are configured for automated application of foils/films as a process cover in the loading station .
A piston rod drive arrangement for an injection device, comprising; - A piston rod having an outer surface with an outer thread which outer thread extend helically in a longitudinal direction along a centre line (X) and which outer surface further is provided with a longitudinal extending engagement surface such that the outer surface of the piston rod has a non-circular cross-section , - A first element engaging the longitudinal extending engagement surface of the non-circular cross-section of the piston rod , - A second element having an inner thread mating the outer thread of the piston rod , such that the piston rod is moved in the longitudinal direction when the first element and the second element are rotated in relation to each other, and wherein, a resilient element formed as an integral part of the inner thread of the second element apply a force to the piston rod in the longitudinal direction. and wherein the inner thread is formed from one or more thread segments , wherein at least one thread segment terminates in a resilient arm , the resilient arm defining a helix angle different from the helix angle of the Z at least one thread segment terminating in the resilient arm , and which resilient arm abuts a crest of the outer thread on the piston rod in order to apply the force axially onto the piston rod in the longitudinal direction. - A piston rod having an outer surface with an outer thread which outer thread extend helically in a longitudinal direction along a centre line (X) and which outer surface further is provided with a longitudinal extending engagement surface such that the outer surface of the piston rod has a non-circular cross-section , - A first element engaging the longitudinal extending engagement surface of the non-circular cross-section of the piston rod , - A second element having an inner thread mating the outer thread of the piston rod ,
Method for detecting a deflection (D) between a source module and a detection module in a scanning apparatus and configured as a sensor pair for scanning transmission measurement of sheet material being transported in a machine direction (MD) through a sensing gap formed between the source module and the detection module , the source module being arranged on a first side of the sensing gap and emitting a sensing radiation (R) towards the sensing gap , and the detection module being arranged on a second side of the sensing gap opposite to the first side and detecting the radiation (R) from the source module and transmitted through the sensing gap , the method comprising: - attaching a removable blocking device to the detection module , so that a radiation-blocking area of the blocking device partially blocks, in an asymmetrical manner, a sub-area of the cross-sectional area of the radiation (R) impinging onto a detection module aperture of the detection module ; and - performing a partially-blocked scanning process during which the source module and the detection module are jointly moved in a cross direction (CD) of the scanning apparatus , the source module emits the radiation (R) and the detection module detects the radiation (R) from the source module having transmitted through the sensing gap , whereby a selected portion of the radiation (R) corresponding to the sub-area covered by the radiation-blocking area is blocked from being detected by the detection module aperture , whereby a partially-blocked sensor signal is obtained from the radiation (R) detected by the detection module . - attaching a removable blocking device to the detection module , so that a radiation-blocking area of the blocking device partially blocks, in an asymmetrical manner, a sub-area of the cross-sectional area of the radiation (R) impinging onto a detection module aperture of the detection module ; and - performing a partially-blocked scanning process during which the source module and the detection module are jointly moved in a cross direction (CD) of the scanning apparatus , the source module emits the radiation (R) and the detection module detects the radiation (R) from the source module having transmitted through the sensing gap , whereby a selected portion of the radiation (R) corresponding to the sub-area covered by the radiation-blocking area is blocked from being detected by the detection module aperture , whereby a partially-blocked sensor signal is obtained from the radiation (R) detected by the detection module .
Network node for a wireless communication system , the network node comprising: a transceiver configured to signal allocation information to a user device in physical layer signalling or in higher layer signalling or in a combination thereof, wherein the allocation information comprises a frequency location and a number of a plurality of Physical Resource Blocks, PRBs, allocated for a Physical Uplink Control Channel, PUCCH, which has a PUCCH format for two or more PRBs; wherein the transceiver is further configured to receive uplink control information in the PUCCH from the user device ; wherein the allocation information further comprises at least one of a modulation type and a modulation level for the allocated plurality of PRBs. a transceiver configured to signal allocation information to a user device in physical layer signalling or in higher layer signalling or in a combination thereof, wherein the allocation information comprises a frequency location and a number of a plurality of Physical Resource Blocks, PRBs, allocated for a Physical Uplink Control Channel, PUCCH, which has a PUCCH format for two or more PRBs; wherein the transceiver is further configured to receive uplink control information in the PUCCH from the user device ; wherein the allocation information further comprises at least one of a modulation type and a modulation level for the allocated plurality of PRBs.
An electronic device battery cover , configured to connect to a housing of an electronic device , the battery cover comprising a glass substrate , wherein a non-transparent layer is disposed on a first side of the glass substrate ; at least one first through-hole is disposed on the non-transparent layer , and, arranged such that when the battery cover is connected to the electronic device , the first through-hole is disposed opposite to a camera assembly disposed in the electronic device ; a camera region is disposed on the first side of the glass substrate , the camera region is disposed opposite to the at least one first through-hole , and an area of the camera region is greater than or equal to an area of the first through-hole ; characterized in that a film-coated layer is disposed in the camera region of the glass substrate ; and wherein a third through-hole is disposed on the non-transparent layer , and, arranged such that when the battery cover is connected to the electronic device , the third through-hole is disposed opposite to a flash assembly of the electronic device ; and a flash region is disposed on the first side of the glass substrate , the flash region is a groove in the glass substrate disposed opposite to the third through-hole, a second film-coated layer is disposed in the flash region, an area of the flash region is greater than or equal to an area of the third through-hole, and side walls of the groove are non-transparent; wherein the film-coated layer and the second film-coated layer are anti-reflection coatings, and are transparent. at least one first through-hole is disposed on the non-transparent layer , and, arranged such that when the battery cover is connected to the electronic device , the first through-hole is disposed opposite to a camera assembly disposed in the electronic device ; a camera region is disposed on the first side of the glass substrate , the camera region is disposed opposite to the at least one first through-hole , and an area of the camera region is greater than or equal to an area of the first through-hole ; characterized in that a film-coated layer is disposed in the camera region of the glass substrate ; and wherein a third through-hole is disposed on the non-transparent layer , and, arranged such that when the battery cover is connected to the electronic device , the third through-hole is disposed opposite to a flash assembly of the electronic device ; and a flash region is disposed on the first side of the glass substrate , the flash region is a groove in the glass substrate disposed opposite to the third through-hole, a second film-coated layer is disposed in the flash region, an area of the flash region is greater than or equal to an area of the third through-hole, and side walls of the groove are non-transparent; wherein the film-coated layer and the second film-coated layer are anti-reflection coatings, and are transparent.
A compound having the structural formula (VII) wherein each of R 1 and R 2 is an isopropyl or R 1 and R 2 together form a pyrrolidine heterocyclic ring with N to which they are attached; R 3 is an acid-labile protecting group; R' is a group selected from a cyanoethyl group and a methyl group; and B is a protected nucleobase selected from: each of R 1 and R 2 is an isopropyl or R 1 and R 2 together form a pyrrolidine heterocyclic ring with N to which they are attached; R 3 is an acid-labile protecting group; R' is a group selected from a cyanoethyl group and a methyl group; and B is a protected nucleobase selected from:
Method for producing containers from preforms by a device for producing containers, which comprises a supply line for supplying fluid and a plurality of moulding units for moulding containers from preforms by the fluid, wherein at least one moulding unit has an outlet nozzle connected in fluid-communicating manner to the supply line for fluid-communicating connection to a mouth of a preform , wherein the method comprises the following steps: - connecting the mouth of a thermally conditioned preform to the outlet nozzle; - generating a pressure surge in a moulding phase with the fluid in the preform for moulding the container from the preform, wherein the pressure surge drives the fluid pressure to a first pressure level which is greater than or equal to 10 bar, wherein the pressure curve of the fluid through the pressure surge has a pressure peak which rises to the first pressure level; - lowering the fluid pressure in a cooling phase to or above a second pressure level, which is higher than the ambient pressure and lower than the first pressure level, for cooling the container in the moulding unit; and - lowering of the fluid pressure to an ambient pressure at the beginning of a removal phase, for removing the container from the moulding unit, wherein the step of generating a pressure surge is carried out in the first third of the time period between the admission of the fluid into the preform and the step of lowering the fluid pressure to an ambient pressure, characterised in that in the last two thirds of the time period the fluid pressure is between the second pressure level and the ambient pressure. - connecting the mouth of a thermally conditioned preform to the outlet nozzle; - generating a pressure surge in a moulding phase with the fluid in the preform for moulding the container from the preform, wherein the pressure surge drives the fluid pressure to a first pressure level which is greater than or equal to 10 bar, wherein the pressure curve of the fluid through the pressure surge has a pressure peak which rises to the first pressure level; - lowering the fluid pressure in a cooling phase to or above a second pressure level, which is higher than the ambient pressure and lower than the first pressure level, for cooling the container in the moulding unit; and - lowering of the fluid pressure to an ambient pressure at the beginning of a removal phase, for removing the container from the moulding unit, wherein the step of generating a pressure surge is carried out in the first third of the time period between the admission of the fluid into the preform and the step of lowering the fluid pressure to an ambient pressure, characterised in that in the last two thirds of the time period the fluid pressure is between the second pressure level and the ambient pressure.