mhurhangee/ep-ind-claims huggingface dataset:
A cathode assembly for use in a radiation generator comprising: an ohmically heated cathode; and a support having formed therein a hole and a recess at least partially surrounding the hole; a mount coupled to the support and comprising a larger outer frame positioned within the recess, a smaller inner frame carrying the ohmically heated cathode and spaced apart from the larger outer frame, and a plurality of members coupling the smaller inner frame to the larger outer frame. an ohmically heated cathode; and a support having formed therein a hole and a recess at least partially surrounding the hole; a mount coupled to the support and comprising a larger outer frame positioned within the recess, a smaller inner frame carrying the ohmically heated cathode and spaced apart from the larger outer frame, and a plurality of members coupling the smaller inner frame to the larger outer frame.
Polymer-bound additives for the antistatic finishing of elastomers, where the additives are based on unsaturated polyesters and/or end-group functionalised rubbers, where the unsaturated polyesters are present in electrolyte form and are selected from the group, composed of and the end-group functionalised rubbers are polybutadienes, which are present in ionic or electrolyte form, respectively, and are selected from the group composed of
Method for separating feed material, wherein the feed material comprises at least one ferromagnetic material fraction and one non-ferromagnetic material fraction, wherein a conveying stream is fed to a first separation of a first ferromagnetic material fraction by means of a first magnetic separating device, wherein the conveying stream is fed to the first separation via a conveying device, wherein the conveying stream is subsequently fed to a second separation of a second ferromagnetic material fraction from the conveying stream by means of a second magnetic separating device, wherein the conveying stream is fed to the second separation via a further conveying device, wherein a redistribution and/or reallocation of the material of the conveying stream takes place between the first separation and the second separation, wherein the conveying stream is guided as a single conveying stream in the region between the first and the second separation, wherein the redistribution and/or the reallocation does not take place with the aid of a sieving, wherein the conveying stream is discharged from the further conveying device onto the second magnetic separating device, wherein the second separation takes place when the conveying stream is conveyed along the further conveying device, wherein the second magnetic separating device is designed as a rotatable magnetic drum and wherein a third separation of a non-magnetic and electrically conductive third material fraction from the conveying stream takes place by means of an eddy current separating device, wherein the third separation takes place after the second separation. wherein the conveying stream is discharged from the further conveying device onto the second magnetic separating device, wherein the second separation takes place when the conveying stream is conveyed along the further conveying device, wherein the second magnetic separating device is designed as a rotatable magnetic drum and wherein a third separation of a non-magnetic and electrically conductive third material fraction from the conveying stream takes place by means of an eddy current separating device, wherein the third separation takes place after the second separation.
A method comprising: determining, for each of a plurality of measurement periods within a thermal average period, an energy usage estimate for a packet processing block configured to process ingress packets at a power gated clock rate; determining, for each of the plurality of measurement periods, a target clock rate for the packet processing block based on the determined energy usage estimates to meet a target energy value that is averaged for the thermal average period; and adjusting, for each of the plurality of measurement periods, the power gated clock rate towards the target clock rate, wherein the adjusting causes the packet processing block to process the ingress packets at the adjusted power gated clock rate; characterized in that the target clock rate is determined based on whether a buffer fill rate for the ingress packets exceeds a threshold fill rate; and wherein multiple threshold levels are provided for the threshold fill rate such that target clock rates are chosen to be distributed between a maximum target clock rate and a minimum target clock rate. determining, for each of a plurality of measurement periods within a thermal average period, an energy usage estimate for a packet processing block configured to process ingress packets at a power gated clock rate; determining, for each of the plurality of measurement periods, a target clock rate for the packet processing block based on the determined energy usage estimates to meet a target energy value that is averaged for the thermal average period; and adjusting, for each of the plurality of measurement periods, the power gated clock rate towards the target clock rate, wherein the adjusting causes the packet processing block to process the ingress packets at the adjusted power gated clock rate; characterized in that the target clock rate is determined based on whether a buffer fill rate for the ingress packets exceeds a threshold fill rate; and wherein multiple threshold levels are provided for the threshold fill rate such that target clock rates are chosen to be distributed between a maximum target clock rate and a minimum target clock rate.
A radiation imaging apparatus, comprising: a pixel array including n pixel rows, where n ≥ 3; and a driving circuit configured to scan the pixel array from a first row toward an n th row, counting from one end of the pixel array, wherein in a case where a region of interest is included in a partial region composed of pixel rows from an i th row to a j th row, where 1 < i ≤ j < n, the driving circuit starts scanning of the pixel array from the first row, and characterized in that the driving circuit starts scanning of the pixel array from the first row again during scanning of pixel rows from a (j + 1) th row to the n th row. a pixel array including n pixel rows, where n ≥ 3; and a driving circuit configured to scan the pixel array from a first row toward an n th row, counting from one end of the pixel array, wherein in a case where a region of interest is included in a partial region composed of pixel rows from an i th row to a j th row, where 1 < i ≤ j < n, the driving circuit starts scanning of the pixel array from the first row, and characterized in that the driving circuit starts scanning of the pixel array from the first row again during scanning of pixel rows from a (j + 1) th row to the n th row.
Laser scanner (1, 1', 1") for motor vehicles, having at least two optical transmitters (12, 13, 14) for emitting in each case one transmitted light beam (3, 4, 5) onto the scene to be measured and also having an optical deflecting device, which is arranged in the beam path of at least one transmitted light beam (3, 4, 5) upstream of a micromirror and is embodied and arranged such that the transmitted light beams (3, 4, 5) are guided onto the micromirror, wherein the deflecting device has at least one deflecting mirror (21, 22, 27) arranged in the beam path of a transmitted light beam (3, 4, 5) and wherein the optical transmitters (12, 13, 14) are arranged in a row, characterized in that in each case one deflecting mirror (21, 22) is assigned to the outwardly located optical transmitters (12, 14) and in that the deflecting mirrors (21, 22, 27) are arranged and oriented relative to the respectively assigned optical transmitter (12, 13, 14) such that the respective transmitted light beams (3, 4, 5) are reflected onto the micromirror at a specified angular distance (α) from the neighbouring transmitted light beams (3, 4, 5), wherein the transmitted light beams (3, 4, 5) lie in a common scanning plane.
A sample measuring apparatus comprising: a reagent container holder configured to hold, by suspending, a reagent container storing a reagent; and a measuring unit configured to add the reagent from the reagent container into the sample to prepare a measurement specimen and measure the measurement specimen, wherein the reagent container holder comprises a plate-shaped member having a through-hole, and characterized in that the plate-shaped member is configured to hold the reagent container such that a bottom surface of the reagent container is exposed from the through-hole, the plate-shaped member comprises suspending portions that each suspend and hold the reagent container, and in that: each of the suspending portions is tapered downward or in that: each of the suspending portions comprises a lower stage opening and an upper stage opening, and the upper stage opening is provided above the lower stage opening and comprises an outer circumference greater than an outer circumference of the lower stage opening. a reagent container holder configured to hold, by suspending, a reagent container storing a reagent; and a measuring unit configured to add the reagent from the reagent container into the sample to prepare a measurement specimen and measure the measurement specimen, the reagent container holder comprises a plate-shaped member having a through-hole, and characterized in that the plate-shaped member is configured to hold the reagent container such that a bottom surface of the reagent container is exposed from the through-hole, the plate-shaped member comprises suspending portions that each suspend and hold the reagent container, and each of the suspending portions comprises a lower stage opening and an upper stage opening, and the upper stage opening is provided above the lower stage opening and comprises an outer circumference greater than an outer circumference of the lower stage opening.
A toner binder comprising: a crystalline resin; and a resin that is a polyester resin or its modified resin, the polyester resin being obtained by reaction of an alcohol component and a carboxylic acid component as raw materials, wherein the resin is an amorphous polyester resin, wherein the alcohol component comprises a bisphenol A polyoxyalkylene ether, wherein the number of alkylene oxide units in the bisphenol A polyoxyalkylene ether is 2 to 5, wherein a temperature (Tp) of a top of an endothermic peak derived from the crystalline resin as measured by a differential scanning calorimeter is in the range of 40°C to 100°C, wherein the temperature (Tp) of a top of an endothermic peak is the temperature at the lowest point of the negative endothermic peak derived from the crystalline resin in the second heating process as determined by a differential scanning calorimeter, when the toner binder is heated, cooled, and heated under the conditions as set out in the description; and endothermic peak areas S 1 and S 2 during heating satisfy the following equation: S 2 / S 1 × 100 ≥ 35 wherein S 1 is an area of the endothermic peak derived from the crystalline resin in the first heating process, and S 2 is an area of the endothermic peak derived from the crystalline resin in the second heating process, as measured by a DSC, when the toner binder is heated, cooled, and heated under the conditions as set out in the description. a crystalline resin; and a resin that is a polyester resin or its modified resin, the polyester resin being obtained by reaction of an alcohol component and a carboxylic acid component as raw materials, wherein the resin is an amorphous polyester resin, wherein the alcohol component comprises a bisphenol A polyoxyalkylene ether, wherein the number of alkylene oxide units in the bisphenol A polyoxyalkylene ether is 2 to 5, wherein a temperature (Tp) of a top of an endothermic peak derived from the crystalline resin as measured by a differential scanning calorimeter is in the range of 40°C to 100°C, wherein the temperature (Tp) of a top of an endothermic peak is the temperature at the lowest point of the negative endothermic peak derived from the crystalline resin in the second heating process as determined by a differential scanning calorimeter, when the toner binder is heated, cooled, and heated under the conditions as set out in the description; and endothermic peak areas S 1 and S 2 during heating satisfy the following equation: S 2 / S 1 × 100 ≥ 35 wherein S 1 is an area of the endothermic peak derived from the crystalline resin in the first heating process, and S 2 is an area of the endothermic peak derived from the crystalline resin in the second heating process, as measured by a DSC, when the toner binder is heated, cooled, and heated under the conditions as set out in the description.
Use of plant Gelsemium elegans Benth. and the flower of plant Datura metel L. in the manufacture of a medicament for eliminating or alleviating acute withdrawal symptoms and protracted syndromes caused by an addictive substance in a subject in need thereof, for eliminating or reducing the degree of desire to obtain the addictive substance in the subject, and for preventing the subject from reusing the addictive substance, wherein the plant Gelsemium elegans Benth. and the flower of Datura metel L. are each used in the form of the raw material or in the form of an extract of the raw material, and wherein the addictive substance is selected from morphines, barbitals, cocaines, Cannabis indica, amphetamines, KHATs (Catha edulis) and hallucinogens.
An apparatus for providing electrical energy to a consumer circuit, comprising a safety and monitoring device separately assigned to the consumer and having a switching device, to the output of which the consumer circuit is connectable via connecting means in the form of a charging cable, wherein the safety and monitoring device comprises sensor means (31, 32) for detecting at least one electrical quantity and an evaluation device which is driven by the sensor means (31, 32), which comprises parameterization means for the presettable specification of at least one safety-relevant triggering criterion, wherein the safety and monitoring device comprises an overcurrent monitoring means which detects the magnitude of the provided electrical current, wherein at least one current-time characteristic for the permissible current profile is predetermined by the parameterization means, wherein the current-time characteristic corresponds to a predeterminable fuse characteristic with a plurality of triggering criteria, wherein a plug of the charging cable or the charging cable is characterized by means of a resistor arranged in the plug or by means of a plug face for a maximum charging current strength, and wherein one of a plurality of previously stored fuse characteristics is selected by means of the characterization of the plug or charging cable, wherein, when at least one safety-relevant trigger criterion of the selected fuse characteristic is reached, the switching device disconnects the consumer circuit.
A method for providing a padding, using 3D printing characterized by depositing a filament according to a microarchitecture that entails the definition of superimposed matrices that are adapted to define a structure composed of individual open cells, which are mutually connected and arranged mutually opposite and side by side, each one having a shape in plan view with a variable diameter which is obtained by way of superimposing elements that are substantially shaped like a truncated pyramid or like a truncated cone with a polygonal base.
A method for forming a beverage, comprising: providing a beverage brewer that includes a brew chamber for receiving a beverage cartridge and a reservoir for holding beverage precursor liquid, the beverage brewer being constructed and arranged to introduce the precursor liquid into the beverage cartridge and form a beverage; providing a brew cartridge into the brew chamber; providing precursor liquid into the reservoir; closing a reservoir lid to pneumatically seal the reservoir; heating the precursor liquid in the reservoir; and providing the precursor liquid in the reservoir to the brew cartridge to form a beverage, characterised in that the step of closing the reservoir lid comprises a user moving the reservoir lid to a closed position by hand. providing a beverage brewer that includes a brew chamber for receiving a beverage cartridge and a reservoir for holding beverage precursor liquid, the beverage brewer being constructed and arranged to introduce the precursor liquid into the beverage cartridge and form a beverage; providing a brew cartridge into the brew chamber; providing precursor liquid into the reservoir; closing a reservoir lid to pneumatically seal the reservoir; heating the precursor liquid in the reservoir; and providing the precursor liquid in the reservoir to the brew cartridge to form a beverage, characterised in that the step of closing the reservoir lid comprises a user moving the reservoir lid to a closed position by hand.
A counterfeit prevention structure comprising: a fine-relief-formation layer that is provided with a first area having an optical element that includes a relief structure whose depth-to-width ratio that is a ratio of a depth relative to a width is not less than a first value, and a second area having an optical element that includes a relief structure whose depth-to-width ratio is less than the first value, and a reflective layer that is arranged on the relief structure included in the area having the lower light transmittance among said first and second areas, wherein, the second area having a light transmittance higher than that of the first area, said a reflective layer is arranged in recesses of the relief structure included in the first area, and the counterfeit prevention structure further comprises a mask coating that is arranged on the reflective layer. a fine-relief-formation layer that is provided with a first area having an optical element that includes a relief structure whose depth-to-width ratio that is a ratio of a depth relative to a width is not less than a first value, and a second area having an optical element that includes a relief structure whose depth-to-width ratio is less than the first value, and a reflective layer that is arranged on the relief structure included in the area having the lower light transmittance among said first and second areas, wherein, the second area having a light transmittance higher than that of the first area, said a reflective layer is arranged in recesses of the relief structure included in the first area, and the counterfeit prevention structure further comprises a mask coating that is arranged on the reflective layer.
Motor vehicle lock with a lock latch, wherein the lock latch can be shifted into an opening position, a main locking position and optionally into a pre-locking position, wherein, in the main locking position and in the optionally present pre-locking position, the lock latch is in securing engagement with a lock striker or the like and, for this purpose, has an inlet mouth with a corresponding engagement surface, wherein the lock latch has a metallic basic body and is optionally encased with a damping material in order to reduce the engagement noises between lock striker and lock latch, characterized in that the lock latch has an engagement plate which provides at least part of the engagement surface for the lock striker or the like.
A tethered plastic screw stopper, comprising: a closure shell a tamper band connected to the closure shell by a plurality of bridges that connect a bottom edge of the closure shell to a top edge of the tamper band; and a ridge forming a link that separably connects the closure shell and the tamper band by a weakness line containing a plurality of first bridges and at least one second bridge, wherein the at least one second bridge has a cross-sectional area greater than the cross-sectional area of the first bridges, wherein the link is formed by a separation line (114,115) made along the bottom of the link and the top remaining material of the tamper band, the link remaining attached to the tamper band by the at least one second bridge when the plurality of first bridges is broken, and characterized in that there are at least two second bridges diametrically opposed, each configured to remain attached to the closure shell and allow the link to remain attached to the tamper band. a closure shell a tamper band connected to the closure shell by a plurality of bridges that connect a bottom edge of the closure shell to a top edge of the tamper band; and a ridge forming a link that separably connects the closure shell and the tamper band by a weakness line containing a plurality of first bridges and at least one second bridge, wherein the at least one second bridge has a cross-sectional area greater than the cross-sectional area of the first bridges, wherein the link is formed by a separation line (114,115) made along the bottom of the link and the top remaining material of the tamper band, the link remaining attached to the tamper band by the at least one second bridge when the plurality of first bridges is broken, and characterized in that there are at least two second bridges diametrically opposed, each configured to remain attached to the closure shell and allow the link to remain attached to the tamper band.
A method of forming a film on a substrate, comprising: positioning a substrate within a processing chamber; heating the substrate to a temperature within a range from 550 degrees Celsius to 750 degrees Celsius; introducing process gases into the processing chamber, the process gases comprising a silicon source, a phosphorus source including phosphine, and a carrier gas, wherein the silicon source is introduced at a gas flow rate between 300 sccm to 400 sccm, the phosphorus source is introduced at a gas flow rate between 2 sccm to 30 sccm, and the carrier gas is introduced at a gas flow rate of 3 to 30 standard liter per minute; and depositing a substantially carbon-free epitaxial layer on the substrate, the substantially carbon-free epitaxial layer having a phosphorus concentration of 1×10 21 atoms per cubic centimeter or greater, wherein the substantially carbon-free epitaxial layer is deposited at a chamber pressure of 39996.7 Pa (300 Torr) or greater. positioning a substrate within a processing chamber; heating the substrate to a temperature within a range from 550 degrees Celsius to 750 degrees Celsius; introducing process gases into the processing chamber, the process gases comprising a silicon source, a phosphorus source including phosphine, and a carrier gas, wherein the silicon source is introduced at a gas flow rate between 300 sccm to 400 sccm, the phosphorus source is introduced at a gas flow rate between 2 sccm to 30 sccm, and the carrier gas is introduced at a gas flow rate of 3 to 30 standard liter per minute; and depositing a substantially carbon-free epitaxial layer on the substrate, the substantially carbon-free epitaxial layer having a phosphorus concentration of 1×10 21 atoms per cubic centimeter or greater, wherein the substantially carbon-free epitaxial layer is deposited at a chamber pressure of 39996.7 Pa (300 Torr) or greater.
A wireless communication system comprising a plurality of wireless stations provided in an aircraft having a radio wave shield (1001, 1011) arranged at a fixed position, characterized in that at least one range of wireless stations (800A, 800B) is provided in the aircraft, consecutive wireless channel numbers are assigned to wireless channels of all wireless stations included in the at least one range (800A, 800B), and respective wireless stations of two wireless stations using wireless channels adjacent to each other are allocated at different positions between which the radio wave shield (1001, 1011) is arranged in a width direction of an airframe of the aircraft.