mhurhangee/ep-ind-claims huggingface dataset:
A silicon etching solution for etching a dummy gate made of silicon in a process for producing a transistor using a structural body comprising a substrate, and a dummy gate laminate formed by laminating at least a high dielectric material film and the dummy gate made of silicon, a side wall disposed to cover a side surface of the laminate and an interlayer insulating film disposed to cover the side wall which are provided on the substrate, in which the dummy gate is replaced with a metal gate containing hafnium, zirconium, titanium, tantalum or tungsten, said silicon etching solution comprising 0.1 to 40% by weight of at least one alkali compound selected from the group consisting of ammonia, a diamine and a polyamine represented by the general formula, 0.01 to 40% by weight of at least one polyhydric alcohol selected from the group consisting of a polyhydric alcohol represented by the general formula, a polyhydric alcohol represented by the general formula, a cyclic polyhydric alcohol represented by the general formula and a non-reducing sugar, and 40 to 99.89% by weight of water: H 2 N-(CH 2 CH 2 NH) k -H wherein k is an integer of 2 to 5; H-(CH) l -R wherein l is an integer of 2 to 6; and R is hydrogen or an alkyl group; C-((CH 2) m OH) 4 wherein m is an integer of 1 or 2; and (CH) n wherein n is an integer of 3 to 8.
Breakaway connector for a chain or cord, for instance a control chain or control cord of a screen such as a window covering, wherein the breakaway connector comprises two connector parts, which connector parts can break away under the influence of a predetermined breakaway force, wherein each connector part is provided with a core with means for attaching an outer end of the chain or the cord and with a closure sleeve extending from the core, wherein in a position of use the closure sleeves of the connector mutually engage after movement in a direction of insertion running in longitudinal direction of the chain to be attached or the cord to be attached, wherein the closure sleeve of a first connector part is provided with two or more first protrusions, which first protrusions extend substantially in longitudinal direction of the closure sleeve in the direction of insertion, wherein the closure sleeve of a second connector part is provided with two or more first recesses, which first recesses extend substantially in longitudinal direction of the closure sleeve in the direction of insertion, wherein the closure sleeve of the second connector part is further provided with two or more second protrusions, which second protrusions extend substantially in longitudinal direction of the closure sleeve in the direction of insertion and wherein the first or the second protrusions take a resilient form, wherein the closure sleeve of the first connector part is further provided with two or more second recesses, which second recesses extend substantially in longitudinal direction of the closure sleeve in the direction of insertion, wherein the protrusions and recesses of each closure sleeve are arranged alternately in peripheral direction of the associated connector part, wherein in closed position of the breakaway connector the closure sleeves enclose a hollow space, characterized in that the closure sleeves can mutually engage by the first protrusions being received in the first recesses and by the second protrusions being received in the second recesses, wherein the protrusions and the recesses form a form-closed connection and in that the protrusions take a widened form in longitudinal direction of insertion.
A method for preparing a 3,3'-di-azido-thio-digalactoside by reacting a compound of formula with a compound of formula to form an azido compound of formula
Sensor having a sync pulse detection unit that takes a detected sync pulse as a basis for starting a counter, characterized by a comparator that compares a first counter reading of the counter with a threshold value (α i × N i), wherein the sensor (S1, S2, S3, S4) takes this comparison as a basis for determining a time slot in which the sensor (S1, S2, S3, S4) transmits data to a controller, and by a circuit (23, 24) that determines the threshold value on the basis of a prescribed value (α i) and a second counter reading (N i), the second counter reading (N i) having been reached upon a preceding data transmission, wherein the threshold value (α i × N i) is determined by virtue of the second counter reading (N i) being multiplied by the prescribed value (α i), the prescribed value (α i) signifying that sensors (S1, S2, S3, S4) are installed in a prescribed association with one another and taking into consideration that the sensors send their data in cascaded fashion (S1, S2, S3, S4) at successive times.
Induction heating element having a circular inductor coil with a circular outer contour and a ferrite element arrangement having at least one ferrite element with a radially outer edge, wherein the radially outer edge of the ferrite element is curved to a greater degree at least at one curvature point than the outer contour of the inductor coil, and the curvature point is an inner point of the radially outer edge, characterised in that the ferrite element has a central opening and the convex, radially outer edge of the ferrite element has the shape of a regular polygon, which runs concentrically in relation to the inductor coil.
Apparatus, comprising: a flexible insertion tube, having a distal segment that is configured to be inserted into a body organ; a plurality of elastic branches connected to the distal segment of the insertion tube at different, respective locations and extending transversely away from the insertion tube at the respective locations; one or more respective electrodes disposed on each of the elastic branches; and conductors traversing the elastic branches so as to couple the electrodes to respective conductors in the insertion tube; characterized in that for a cross-sectional circle of the flexible insertion tube only one of the elastic branches is connected to the circle. a flexible insertion tube, having a distal segment that is configured to be inserted into a body organ; a plurality of elastic branches connected to the distal segment of the insertion tube at different, respective locations and extending transversely away from the insertion tube at the respective locations; one or more respective electrodes disposed on each of the elastic branches; and conductors traversing the elastic branches so as to couple the electrodes to respective conductors in the insertion tube; characterized in that for a cross-sectional circle of the flexible insertion tube only one of the elastic branches is connected to the circle.
Optical sensor for detection of objects in a monitoring region, comprising a transmitter emitting transmitted light beams, a receiver receiving received light beams, an evaluating unit in which an object detection signal is generated in dependence on the received signals at the output of the receiver, and a transmitting optical system, which is arranged downstream of the transmitter, for beam shaping of the transmitted light beams, wherein the transmitting optical system is directly connected with the transmitter and comprises a concentrator which forms a light guide element for the transmitted light beams, wherein for that purpose total reflection of the transmitted light beams takes place at the circumferential surface of the concentrator, wherein the end face, which is associated with the transmitter, of the concentrator is constructed as a coupling-in surface for the transmitted light beams, and wherein an exit surface which forms beam shaping means for the transmitted light beams is provided at the end face of the concentrator remote from the transmitter, characterised in that the coupling-in surface bounds a funnel-shaped cavity which opens at the end face of the concentrator, wherein the coupling-in surface has an end surface, the normal vector of which coincides with the longitudinal axis of the concentrator, and a circumferential surface segment, which is rotationally symmetrical with respect to the longitudinal axis of the concentrator and which has a conical shape.
An imaging device comprising: a first-conductivity-type substrate; a first-conductivity-type element forming portion provided on the substrate; and a plurality of pixel portions that are arrayed two-dimensionally in at least one of the substrate and the element forming portion, each pixel portion having a light receiving element, wherein at least one pixel portion of the plurality of pixel portions has: a first-conductivity-type first wall portion provided on a substrate side relative to the light receiving element and on a light receiving element side relative to the substrate, the first wall portion overlapping at least part of the light receiving element in the array direction of the plurality of pixel portions, and having a p-type or n-type impurity concentration higher than that of the substrate; and a carrier passage area (Rcp) where the first wall is not provided is arranged at a position in the array direction of the plurality of pixel portions where carriers generated in the substrate are able to pass the first wall portion. a first-conductivity-type substrate; a first-conductivity-type element forming portion provided on the substrate; and a plurality of pixel portions that are arrayed two-dimensionally in at least one of the substrate and the element forming portion, each pixel portion having a light receiving element, wherein at least one pixel portion of the plurality of pixel portions has: a first-conductivity-type first wall portion provided on a substrate side relative to the light receiving element and on a light receiving element side relative to the substrate, the first wall portion overlapping at least part of the light receiving element in the array direction of the plurality of pixel portions, and having a p-type or n-type impurity concentration higher than that of the substrate; and a carrier passage area (Rcp) where the first wall is not provided is arranged at a position in the array direction of the plurality of pixel portions where carriers generated in the substrate are able to pass the first wall portion. a first-conductivity-type first wall portion provided on a substrate side relative to the light receiving element and on a light receiving element side relative to the substrate, the first wall portion overlapping at least part of the light receiving element in the array direction of the plurality of pixel portions, and having a p-type or n-type impurity concentration higher than that of the substrate; and a carrier passage area (Rcp) where the first wall is not provided is arranged at a position in the array direction of the plurality of pixel portions where carriers generated in the substrate are able to pass the first wall portion.
An assembly comprising a conductor and a conductor contact to be assembled therewith, the conductor having a free end section adapted to be received in the conductor contact, the conductor contact comprising - a sleeve (2, 102) with an opening adapted to receive the free end section of the conductor, - a contact tip (3, 103) with an opening (35, 135) adapted to receive the sleeve (2, 102), the sleeve (2, 102) comprising a tapered outer surface (21, 121) on a compressible section surrounding said opening and the contact tip (3, 103) comprising a tapered surface inside the opening adapted to compress the compressible section of the sleeve (2, 102) when the contact tip (3, 103) surrounds the sleeve (2, 102), and an outer smooth surface (34, 134); characterized in that the contact tip (3, 103) has an outer circumference at the opening (35, 135) substantially equivalent to a circumference of the conductor at an axial distance from the free end substantially equivalent to the axial depth of the opening in the sleeve adapted to receive the free end thereby providing a smooth transition from the surface of the conductor to the surface of the conductor contact, wherein the assembly of the conductor contact and the conductor presents a smooth cylindrical surface when the contact tip (3, 103) is connected to the conductor. - a sleeve (2, 102) with an opening adapted to receive the free end section of the conductor, - a contact tip (3, 103) with an opening (35, 135) adapted to receive the sleeve (2, 102),
A random mat comprising: reinforcing fibers having an average fiber length of 3 to 100 mm; and a thermoplastic resin, wherein the reinforcing fibers contain a reinforcing fiber bundle composed of the reinforcing fibers of a critical number of single fiber (defined by the following formula) or more, an average thickness of the reinforcing fiber bundles is 100 μm or less, and a number (n) of the reinforcing fiber bundles per unit weight (g) of the reinforcing fibers satisfies the following formula: Critical number of single fiber = 600 / D wherein D is the average fiber diameter (μm) of single reinforcing fibers: 0.65 × 10 4 / L < n wherein L is the average fiber length (mm) of single reinforcing fibers.
A haemostatic material comprising a carrier layer, an adhesive layer comprising a meltable bonding agent, and a layer of at least one haemostat in particulate, granular, powder, flake or short fibrous form, wherein the haemostat is bonded to the carrier layer using an adhesive layer between the haemostat and the carrier layer and wherein the adhesive layer and haemostat are separate layers, the layer of at least one haemostat consisting of a. chitosan salt only; or b. chitosan salt with an inert material and/or a medical surfactant, wherein the inert material comprises one or more selected from cellulose, fumed silica, sand, clay, microcrystalline cellulose, oxidised regenerated cellulose, polyethylglycol, guar gum, xanthan gum, chitosan, chitosan derivatives, chitin, sucrose, lactose, pectin, caarboxymethylcellulose, ground corn meal, collagen, gelatine, polyvinylalcohol, acrylic acid, acrylate (co)polymers, crosslinked acrylic acid-based polymers, barium sulphate, starch, or a combination of any two or more thereof. a. chitosan salt only; or b. chitosan salt with an inert material and/or a medical surfactant, wherein the inert material comprises one or more selected from cellulose, fumed silica, sand, clay, microcrystalline cellulose, oxidised regenerated cellulose, polyethylglycol, guar gum, xanthan gum, chitosan, chitosan derivatives, chitin, sucrose, lactose, pectin, caarboxymethylcellulose, ground corn meal, collagen, gelatine, polyvinylalcohol, acrylic acid, acrylate (co)polymers, crosslinked acrylic acid-based polymers, barium sulphate, starch, or a combination of any two or more thereof.
A composition for injection comprising: a pharmaceutically acceptable salt of a compound represented by a following Formula 1; and one or more selected from mannitol and trehalose as a stabilizing agent: a pharmaceutically acceptable salt of a compound represented by a following Formula 1; and one or more selected from mannitol and trehalose as a stabilizing agent:
A coating composition comprising: a film-forming resin composition comprising an aqueous dispersion of at least one carboxyl functional polymer; a first crosslinking agent comprising an epoxy silane; and a second crosslinking agent comprising an isocyanate which contains at least one alkoxysilane group. a film-forming resin composition comprising an aqueous dispersion of at least one carboxyl functional polymer; a first crosslinking agent comprising an epoxy silane; and a second crosslinking agent comprising an isocyanate which contains at least one alkoxysilane group.
Method to optimize the command and control of an electric motor of an automation unit, comprising a mechanical member, driven by a shaft of said electric motor, to carry out an operating cycle, and a central command and control unit, the automation unit comprising at least a position detection mean to detect the instantaneous angular position of said shaft of the electric motor and/or of said mechanical member, said position detection mean and said central command and control unit being connected by data connection lines, wherein said electric motor is directly connected to said mechanical member, said electric motor and said mechanical member constituting an operating unit suitable to perform at least a portion of a complete rotation of one angle of the mechanical member carrying out said operating cycle, said method comprising the following steps: i) receiving, by said central command and control unit, at least signals of the angular position of the shaft of the electric motor and/or of the mechanical member from said position detection mean via said data connection lines; ii) dividing said operating cycle into a plurality of operating sub-phases ("n") representing equal intervals of position or time; iii) establishing, by said central command and control unit, in which operating sub-phase ("n") the operating unit is, based on signals from said position detection mean; characterised by iv) for each of said operating sub-phases ("n"), generating and sending to the electric motor, by said central command and control unit, a value of reference current in feed forward; said value of reference current being obtained by means of self-learning techniques, or pre-memorized in tables. i) receiving, by said central command and control unit, at least signals of the angular position of the shaft of the electric motor and/or of the mechanical member from said position detection mean via said data connection lines; ii) dividing said operating cycle into a plurality of operating sub-phases ("n") representing equal intervals of position or time; iii) establishing, by said central command and control unit, in which operating sub-phase ("n") the operating unit is, based on signals from said position detection mean; characterised by iv) for each of said operating sub-phases ("n"), generating and sending to the electric motor, by said central command and control unit, a value of reference current in feed forward; said value of reference current being obtained by means of self-learning techniques, or pre-memorized in tables.
A valve, comprising: a channel body defining a channel space, an elastically flexible membrane, which separates a control space (Sc) from a flow space (Sf) in the channel space, and a control connection, providing a fluid connection to the control space (Sc), wherein the channel space is a bent channel space, the control space (Sc) is provided at a radially outermost portion (Co) of the bent channel space, such that the membrane is flexible between an open position, whereby a cross section of the flow space (Sf) is substantially that of the channel, and a closed position, whereby the membrane substantially seals against a radially innermost portion (Ci) of the bent channel space, and characterized in that, the membrane, in a relaxed position, i.e. where a pressure difference over the membrane is substantially zero, is substantially planar. a channel body defining a channel space, an elastically flexible membrane, which separates a control space (Sc) from a flow space (Sf) in the channel space, and a control connection, providing a fluid connection to the control space (Sc), wherein the channel space is a bent channel space, the control space (Sc) is provided at a radially outermost portion (Co) of the bent channel space, such that the membrane is flexible between an open position, whereby a cross section of the flow space (Sf) is substantially that of the channel, and a closed position, whereby the membrane substantially seals against a radially innermost portion (Ci) of the bent channel space, and characterized in that, the membrane, in a relaxed position, i.e. where a pressure difference over the membrane is substantially zero, is substantially planar.
A random access method, comprising: grouping (S210, S310), by a network device, available random access resources into a plurality of random access resource groups, wherein the plurality of random access resource groups are in one-to-one correspondence with a plurality of combinations, and each of the plurality of combinations comprises a combination of an uplink transmission capability and a coverage level, wherein the uplink transmission capability comprises a carrier support capability, the carrier support capability is used to indicate whether multi-carrier transmission is supported, and a coverage level indicates a quantity of repeated transmissions of a terminal device; sending (S220, S320), by the network device, information about the plurality of random access resource groups to the terminal device; receiving (S240, S340), by the network device, a random access request from the terminal device, wherein the random access request is used to request to access the network device; determining (S250, S350), by the network device, a target random access resource group to which a random access resource used for the random access request belongs, wherein the plurality of random access resource groups comprise the target random access resource group; and determining (S260, S360), by the network device based on the target random access resource group, an uplink transmission capability and a coverage level of the terminal device that matches the target random access resource group. grouping (S210, S310), by a network device, available random access resources into a plurality of random access resource groups, wherein the plurality of random access resource groups are in one-to-one correspondence with a plurality of combinations, and each of the plurality of combinations comprises a combination of an uplink transmission capability and a coverage level, wherein the uplink transmission capability comprises a carrier support capability, the carrier support capability is used to indicate whether multi-carrier transmission is supported, and a coverage level indicates a quantity of repeated transmissions of a terminal device; sending (S220, S320), by the network device, information about the plurality of random access resource groups to the terminal device; receiving (S240, S340), by the network device, a random access request from the terminal device, wherein the random access request is used to request to access the network device; determining (S250, S350), by the network device, a target random access resource group to which a random access resource used for the random access request belongs, wherein the plurality of random access resource groups comprise the target random access resource group; and determining (S260, S360), by the network device based on the target random access resource group, an uplink transmission capability and a coverage level of the terminal device that matches the target random access resource group.