mhurhangee/patent-ind-claim-en huggingface dataset:
Leather trim model for producing a silicone impression, comprising - a milling model which has at least one groove with a groove base , - a skin which is arranged on the milling model and is formed from at least one first cut and one second cut , wherein the skin - has a structured side and an opposing rear side and the skin rests and is suitably fixed with the rear side at least outside the groove on the milling model , - wherein the first cut and the second cut are connected via at least one joint line (L) forming a first positioning section (A1) and a second positioning section (A2), - wherein the first positioning section (A1) is arranged between the joint line (L) and a front end (S1) of the first cut and the second positioning section (A2) is arranged between the joint line (L) and a front end (S2) of the second cut , - wherein the positioning sections (A1, A2) are inserted into the groove with the respective front end (S1, S2) directed towards the groove base , characterised in that : - the joint line (L) is tightly sealed, so that during the production of a silicone impression no silicone can penetrate through the joint line (L) into the region between the two positioning sections (A1, A2), wherein - the positioning sections (A1, A2) are substantially completely welded or glued to one another, forming a joint surface (F). - a milling model which has at least one groove with a groove base , - a skin which is arranged on the milling model and is formed from at least one first cut and one second cut , wherein the skin - has a structured side and an opposing rear side and the skin rests and is suitably fixed with the rear side at least outside the groove on the milling model , - wherein the first cut and the second cut are connected via at least one joint line (L) forming a first positioning section (A1) and a second positioning section (A2), - wherein the first positioning section (A1) is arranged between the joint line (L) and a front end (S1) of the first cut and the second positioning section (A2) is arranged between the joint line (L) and a front end (S2) of the second cut , - wherein the positioning sections (A1, A2) are inserted into the groove with the respective front end (S1, S2) directed towards the groove base , - the joint line (L) is tightly sealed, so that during the production of a silicone impression no silicone can penetrate through the joint line (L) into the region between the two positioning sections (A1, A2), wherein - the positioning sections (A1, A2) are substantially completely welded or glued to one another, forming a joint surface (F).
Method for adjusting a switching mode power supply source of the voltage-down type, said source being configured to deliver an output voltage (Vout), including a power transistor (TP) configured to be cyclically turned on by a first control signal (SC1) and being intended to operate in a pulse width modulation (PWM) mode in which it is configured to generate an error voltage (Verror) from the output voltage (Vout) and a from reference voltage (Vref) or in a pulse frequency modulation (PFM) mode, characterised in that the method comprises generating the first control signal (SC1) from a comparison of the error voltage (Verror) and a ramp voltage (Vr) and applying, in the pulse width modulation (PWM) mode, a first delay (R1) to the first control signal (SC1), the first delay (R1) being determined so as to reduce the difference between the error voltage (Verror) and the reference voltage (Vref), said source being configured to generate, in the pulse width modulation (PWM) mode, a first intermediate signal (SI1) from a comparison of the error voltage (Verror) and the ramp voltage (Vr), and the first delay (R1) is equal to the duration of a first intrinsic propagation time (TPI1) of said generation of the first intermediate signal (SI1).
Height-adjustable table, comprising a table base , a first and a second pair of struts and a table top support , wherein the first pair of struts is designed to be connected firstly with the table base and secondly with the second pair of struts , and the second pair of struts is designed to be connected firstly with the first pair of struts and secondly with the table top support , wherein the first pair of struts has a first support strut (1.1) connected in an articulated manner to the table base and a first adjusting strut (1.2) extending at least in sections parallel to the first support strut (1.1), wherein the second pair of struts has a second support strut (2.1) connected in an articulated manner to the table top support and a second adjusting strut (2.2) extending at least in sections parallel to the second support strut (2.1), characterized in that the first support strut (1.1) is designed to be connected in an articulated manner to the second support strut (2.1) via a first joint (4.1), the first support strut (1.1) is designed to be connected in an articulated manner to the second adjusting strut (2.2) via a second joint (4.2) and the first adjusting strut (1.2) is designed to be connected in an articulated manner to the second support strut (2.2) via a third joint (4.3), and in that the first adjusting strut (1.2) is moveably mounted on the table base and the second adjusting strut (2.2) is moveably mounted on the table top support .
A composition comprising at least one fluoroolefin and 10 to 2,000 ppm by weight of at least one inhibitor selected from the group consisting of limonene, α-terpinene and α-tocopherol which reduces conversion of the fluoroolefin into oligomers or polymers, and wherein the composition contains less than 1 wt.% of oligomeric, homopolymers or other polymeric products derived from the fluoroolefin, wherein the fluoroolefin comprises at least one member of HFO-1234yf and HFO-1234ze, and wherein the composition further comprises at least one member selected from the group consisting of HCC-40, HCFC-22, CFC-115, HCFC-124, HCFC-1122, and CFC-1113. wherein the fluoroolefin comprises at least one member of HFO-1234yf and HFO-1234ze, and wherein the composition further comprises at least one member selected from the group consisting of HCC-40, HCFC-22, CFC-115, HCFC-124, HCFC-1122, and CFC-1113.
Recoating unit for equipping or retrofitting a device for additive manufacturing of a three-dimensional object by selectively solidifying a building material , preferably a powder, layer by layer, wherein the device comprises a recoater movable across a build area for applying a layer of the building material within the build area and a solidification device for selectively solidifying the applied layer at positions corresponding to a cross-section of the object to be manufactured, and is formed and/or controlled to repeat the steps of applying and selectively solidifying until the object is completed, wherein the recoating unit comprises: at least two recoating rollers spaced apart from each other in a first direction (B1) and extending into a second direction transversely, preferably perpendicularly, to the first direction, and a compacting and/or smoothing element arranged between the two recoating rollers in the first direction (B1) and extending into the second direction, wherein a lower side of the compacting and/or smoothing element facing the build area is arranged closer to the build area than the lower sides of the two recoating rollers facing the build area , wherein the recoating unit is adapted to: draw-out building material to a regular layer , depending on the movement of the recoating unit into the first direction (B1) or into its reverse direction (B2), using the recoating roller arranged ahead in the respective moving direction (B1, B2), and compact or smoothen the layer drawn-out by the recoating roller arranged ahead using the compacting and/or smoothing element . at least two recoating rollers spaced apart from each other in a first direction (B1) and extending into a second direction transversely, preferably perpendicularly, to the first direction, and a compacting and/or smoothing element arranged between the two recoating rollers in the first direction (B1) and extending into the second direction, wherein a lower side of the compacting and/or smoothing element facing the build area is arranged closer to the build area than the lower sides of the two recoating rollers facing the build area , wherein the recoating unit is adapted to: draw-out building material to a regular layer , depending on the movement of the recoating unit into the first direction (B1) or into its reverse direction (B2), using the recoating roller arranged ahead in the respective moving direction (B1, B2), and compact or smoothen the layer drawn-out by the recoating roller arranged ahead using the compacting and/or smoothing element . draw-out building material to a regular layer , depending on the movement of the recoating unit into the first direction (B1) or into its reverse direction (B2), using the recoating roller arranged ahead in the respective moving direction (B1, B2), and compact or smoothen the layer drawn-out by the recoating roller arranged ahead using the compacting and/or smoothing element .
A circuit comprising: a bipolar transistor ; a signal source ; and a switch ; a base terminal (B) of the bipolar transistor being switchably connectable to the signal source through the switch ; a diode having a first terminal connected to the base terminal (B) of the transistor , and a second terminal connected to a first voltage; the circuit arranged, when in operation, such that when the signal source is not connected to the base terminal (B) of the transistor , a second voltage applied at an emitter terminal (E) of the bipolar transistor causes a current flow through the base terminal (B) of the transistor and through the diode such that the bipolar transistor is in an ON state; the impedance of the signal source being lower than the impedance of the bipolar transistor through the emitter and base terminals (E) (B); the diode selected to provide a current limiting function such that, during operation of the circuit, when the signal source is connected to the base terminal (B) of the transistor , current flow through the base terminal (B) reduces such that the bipolar transistor switches to an OFF state; and means to control the switching speed of the bipolar transistor , comprising means to vary the first voltage to vary the voltage across the diode . a bipolar transistor ; a signal source ; and a switch ; a base terminal (B) of the bipolar transistor being switchably connectable to the signal source through the switch ; a diode having a first terminal connected to the base terminal (B) of the transistor , and a second terminal connected to a first voltage; the circuit arranged, when in operation, such that when the signal source is not connected to the base terminal (B) of the transistor , a second voltage applied at an emitter terminal (E) of the bipolar transistor causes a current flow through the base terminal (B) of the transistor and through the diode such that the bipolar transistor is in an ON state; the impedance of the signal source being lower than the impedance of the bipolar transistor through the emitter and base terminals (E) (B); the diode selected to provide a current limiting function such that, during operation of the circuit, when the signal source is connected to the base terminal (B) of the transistor , current flow through the base terminal (B) reduces such that the bipolar transistor switches to an OFF state; and means to control the switching speed of the bipolar transistor , comprising means to vary the first voltage to vary the voltage across the diode .
A burner for gas cooktop, comprising a burner base and a fire cap, wherein the fire cap comprises an inner-ring fire cap and an outer-ring fire cap surrounding the inner-ring fire cap , and the inner-ring fire cap and the outer-ring fire cap are provided with flame holes for gas to flow out; and the burner further comprises a first air passage and a second air passage, the first air passage supplies air to burning of the gas flowing out from the flame hole on the outer-ring fire cap , and the second air passage supplies air to burning of the gas flowing out from the flame hole on the inner-ring fire cap ; the air supply of the first air passage and the air supply of the second air passage are independent of each other, wherein the burner base is provided with a first air entrance and a second air entrance respectively connected to air sources, the first air entrance and the second air entrance are independent of each other, the first air entrance is communicated with the first air passage, and the second air entrance is communicated with the second air passage, characterized in that , the first air entrance is connected to a first air generation apparatus, the second air entrance is connected to a second air generation apparatus, and air flow of the first air generation apparatus and air flow of the second air generation apparatus are respectively independently controlled; or the first air entrance and the second air entrance are respectively connected to a same air generation apparatus, and means to independently control the air flow entering the first air entrance and the air flow entering the second air entrance , respectively.
A fluorescence image analyzing apparatus configured to apply the fluorescence in situ hybridization method comprising: a light source configured to emit light to a sample; an imaging unit configured to capture a fluorescence image of each of samples that emit fluorescence by being irradiated with the light; a processing unit configured to process the fluorescence image captured by the imaging unit to acquire a bright spot pattern of fluorescence in the fluorescence image; a storage unit configured to store a plurality of reference patterns corresponding to a plurality of measurement items classified by probes to hybridize to a target site, and wherein the processing unit is configured to receive a measurement item and information associated with a probe, select and automatically read a reference pattern corresponding to the received measurement item and the information from the plurality of reference patterns corresponding to the plurality of measurement items in the storage unit , compare the bright spot pattern with the reference pattern and thereby generate information used for determination of the sample based on the bright spot pattern of fluorescence in the fluorescence image and the read reference pattern, wherein the processing unit is configured to generate, as the information used for determination of the sample, information of at least one of a number of abnormal cells, a ratio of a number of abnormal cells, a number of normal cells, and a ratio of a number of normal cells. a light source configured to emit light to a sample; an imaging unit configured to capture a fluorescence image of each of samples that emit fluorescence by being irradiated with the light; a processing unit configured to process the fluorescence image captured by the imaging unit to acquire a bright spot pattern of fluorescence in the fluorescence image; a storage unit configured to store a plurality of reference patterns corresponding to a plurality of measurement items classified by probes to hybridize to a target site, and wherein the processing unit is configured to receive a measurement item and information associated with a probe, select and automatically read a reference pattern corresponding to the received measurement item and the information from the plurality of reference patterns corresponding to the plurality of measurement items in the storage unit , compare the bright spot pattern with the reference pattern and thereby generate information used for determination of the sample based on the bright spot pattern of fluorescence in the fluorescence image and the read reference pattern, wherein the processing unit is configured to generate, as the information used for determination of the sample, information of at least one of a number of abnormal cells, a ratio of a number of abnormal cells, a number of normal cells, and a ratio of a number of normal cells.
A lubricating oil composition for transmissions comprising a base oil and an olefin copolymer, which is a copolymer of ethylene and an α-olefin, wherein the mass-average molecular weight of the olefin copolymer is 5,000 or more and 30,000 or less, the hydrodynamic radius of the olefin copolymer, measured as indicated in the description, is 1.00 nm or more and 5.00 nm or less, and the content of the olefin copolymer based on the total amount of the composition is 1.0% by mass or more and 8.0% by mass or less.
Frame for a drawer having a base a rear wall with a width (B) and at least one such frame, wherein the frame has an inner shell and an outer shell fastened to the inner shell, wherein a vertically upper contact region or a gap between the outer shell and the inner shell is covered by a cover strip , wherein the cover strip is formed in one or several pieces and wherein the outer shell has an exterior wall section , which essentially or completely forms the visible outer wall of the frame on the outer wall side facing away from the drawer bottom , characterised in that towards the rear wall the inner shell is shorter than the outer shell by its width (B) and that towards the rear wall the cover strip is provided with a recess of width B of the rear wall .
A monitoring device configured to be attached to a subject, the monitoring device comprising: a photoplethysmography (PPG) sensor configured to measure multiple types of physiological information from the subject including heart rate; and a processor coupled to the PPG sensor , wherein the processor is configured to receive and analyze signals produced by the PPG sensor , and wherein the processor is configured to: determine a stress level of the subject based on measured heart rate level; characterized in that the processor is further configured to: in response to determining that the subject is at an elevated stress level, control the PPG sensor to increase the number of types of physiological information measured from the subject and to increase the signal analysis frequency; and in response to determining that the subject is at a reduced stress level, control the PPG sensor to decrease the number of types of physiological information measured from the subject and to decrease the signal analysis frequency. a photoplethysmography (PPG) sensor configured to measure multiple types of physiological information from the subject including heart rate; and a processor coupled to the PPG sensor , wherein the processor is configured to receive and analyze signals produced by the PPG sensor , and wherein the processor is configured to: determine a stress level of the subject based on measured heart rate level; characterized in that the processor is further configured to: in response to determining that the subject is at an elevated stress level, control the PPG sensor to increase the number of types of physiological information measured from the subject and to increase the signal analysis frequency; and in response to determining that the subject is at a reduced stress level, control the PPG sensor to decrease the number of types of physiological information measured from the subject and to decrease the signal analysis frequency. in response to determining that the subject is at an elevated stress level, control the PPG sensor to increase the number of types of physiological information measured from the subject and to increase the signal analysis frequency; and in response to determining that the subject is at a reduced stress level, control the PPG sensor to decrease the number of types of physiological information measured from the subject and to decrease the signal analysis frequency.
A method comprising: receiving, by a first wireless device from a base station, a message indicating a priority threshold; receiving, by the first wireless device from a second wireless device, an indication of: one or more first resources of a first sidelink transport block; and a priority of the first sidelink transport block; and based on the priority and the priority threshold, dropping, by the first wireless device, a sidelink transmission of one or more second resources that overlap with the one or more first resources. receiving, by a first wireless device from a base station, a message indicating a priority threshold; receiving, by the first wireless device from a second wireless device, an indication of: one or more first resources of a first sidelink transport block; and a priority of the first sidelink transport block; and one or more first resources of a first sidelink transport block; and a priority of the first sidelink transport block; and based on the priority and the priority threshold, dropping, by the first wireless device, a sidelink transmission of one or more second resources that overlap with the one or more first resources.
A plug connector in which the plug connector comprises: a plurality of contacts; a body which holds the contacts; a metal shell which covers the body; and a printed circuit board to which the contacts are solder-connected, the body comprises a fitting portion which is projected, and which is to be fitted with a counter connector, the printed circuit board comprises a thermal protection circuit, and the thermal protection circuit comprises: a temperature switch IC adapted to detect a temperature; and an FET which is disposed in a power supply wiring of the printed circuit board, and which, when a detected temperature of the temperature switch IC exceeds a predetermined temperature, is adapted to cut off the power supply wiring, characterised in that the printed circuit board comprises a heat conduction pattern which conducts heat of the metal shell to the temperature switch IC.
A safety valve for a cleaning apparatus for a milking system for milking milk-producing animals, having a first block valve with an inlet connector , a second block valve with an outlet connector , a bleed valve with a bleed outlet connector , a piston rod and a drive unit (34, 34', 34"), the safety valve being configured such that it can be adjusted from a block position, in which the first block valve and the second block valve are closed for blocking the inlet connector and the outlet connector , and the bleed valve is open for connecting the bleed outlet connector to a connection , into a passage position, in which the first block valve and the second block valve are open for connecting the inlet connector via the connection to the outlet connector , and the bleed valve is closed for blocking the bleed outlet connector , and back again, wherein the first block valve , the second block valve and the bleed valve of the safety valve are configured as seat valves with a common piston plate , characterized in that the piston plate has seat section faces of the valves which are configured as seat valves, and that the safety valve has a valve body with a longitudinal axis , which valve body is constructed in a sandwich design from different functional units which comprise a block valve unit , a bleed valve unit , a connecting unit and at least one drive unit .