mhurhangee/patent-ind-claim-en huggingface dataset:
Composite particles having a volume mean diameter in the range from ≥10 μm to 200 μm and comprising i) a hydrophobic particle comprising a wax that is selected from the group carnauba wax, beeswax, Chinese wax, shellac wax, spermaceti wax, candelilla wax, castor wax, ouricury wax and rice bran wax, that adheres to the cuticle of one or more species of animal-infesting arthropod; and ii) at least one organic chemical compound admixed therewith, wherein the said organic chemical is capable of controlling the population of at least one animal-infesting arthropod species for use in the therapeutic control of an arthropod population on an animal, wherein the at least one organic chemical is selected from pyrethroids, organophosphates, carbamates, spinosans, neonicotinoids, anthranilamides, formonetins, GABA inhibitors, essential oils and insect growth regulators. i) a hydrophobic particle comprising a wax that is selected from the group carnauba wax, beeswax, Chinese wax, shellac wax, spermaceti wax, candelilla wax, castor wax, ouricury wax and rice bran wax, that adheres to the cuticle of one or more species of animal-infesting arthropod; and ii) at least one organic chemical compound admixed therewith, wherein the said organic chemical is capable of controlling the population of at least one animal-infesting arthropod species
A medical balloon assembly, comprising: a catheter having a proximal and distal end, a balloon having two opposed shoulder portions terminating into first and second legs , wherein the balloon is configured to be arranged over a portion of the distal end of the catheter; and a continuous fiber extending from the first leg at a first position to a second leg at a second position the fiber being at least partially wrapped around the second leg at the second position and returning back to the first leg portion at a third position, wherein the first and third positions are different. a catheter having a proximal and distal end, a balloon having two opposed shoulder portions terminating into first and second legs , wherein the balloon is configured to be arranged over a portion of the distal end of the catheter; and a continuous fiber extending from the first leg at a first position to a second leg at a second position the fiber being at least partially wrapped around the second leg at the second position and returning back to the first leg portion at a third position, wherein the first and third positions are different.
Reeving device for reeving a crane , the reeving device having a hook block , which comprises an upper block and a lower block , the upper block being detachable from the lower block when the crane is being reeved, the upper block having a reeving pin and the reeving device having a holding point and a reeving means , the upper block being able to be coupled, in particular fitted, into the holding point by means of its reeving pin for the purpose of reeving the crane from M-strand operation to N-strand operation, and being able to be decoupled from the holding point using the reeving means for the purpose of reeving from N-strand operation to M-strand operation, characterized in that the reeving means can be actuated at least indirectly by a horizontal drive of a crane , which is equipped with the reeving device , specifically from a starting position to a decoupled position, in which the reeving means closes the holding point for the reeving pin .
A data processing pipeline comprising: a first pipeline stage receiving a first clock signal (CLK0) and configured to perform a first operation triggered by first timing edges of the first clock signal (CLKO); a second pipeline stage receiving a second clock signal (CLK1) and configured to perform a second operation triggered by second timing edges of the second clock signal (CLK1); and a clock controller configured to generate the first and second clock signals (CLKO, CLK1) based on a master clock signal (MCLK), the clock controller comprising an input line for receiving a command signal (Div_cmd) indicating the number of clock periods of the master clock that is to be used for each processing cycle of the pipeline, wherein the clock controller is capable of operating: - in a first mode in which, during a first data processing cycle of the data processing pipeline, a first of the first timing edges is in-phase with a first of the second timing edges; and - in a second mode in which a second data processing cycle of the data processing pipeline is spread over a plurality of clock periods of the master clock, a second of the first timing edges being out of phase with a second of the second timing edges. a first pipeline stage receiving a first clock signal (CLK0) and configured to perform a first operation triggered by first timing edges of the first clock signal (CLKO); a second pipeline stage receiving a second clock signal (CLK1) and configured to perform a second operation triggered by second timing edges of the second clock signal (CLK1); and a clock controller configured to generate the first and second clock signals (CLKO, CLK1) based on a master clock signal (MCLK), the clock controller comprising an input line for receiving a command signal (Div_cmd) indicating the number of clock periods of the master clock that is to be used for each processing cycle of the pipeline, wherein the clock controller is capable of operating: - in a first mode in which, during a first data processing cycle of the data processing pipeline, a first of the first timing edges is in-phase with a first of the second timing edges; and - in a second mode in which a second data processing cycle of the data processing pipeline is spread over a plurality of clock periods of the master clock, a second of the first timing edges being out of phase with a second of the second timing edges. - in a first mode in which, during a first data processing cycle of the data processing pipeline, a first of the first timing edges is in-phase with a first of the second timing edges; and - in a second mode in which a second data processing cycle of the data processing pipeline is spread over a plurality of clock periods of the master clock, a second of the first timing edges being out of phase with a second of the second timing edges.
A composition comprising a supercritical rosemary extract (SRE) and a lipid system which in turn comprises ratfish liver oil (RLO) or the product of an enzymatic or chemical glycerolysis process based on ratfish liver oil (RLO).
A composition comprising an epoxide functional polymer comprising epoxide functional groups, wherein the epoxide functional polymer has a number average molecular weight of 1000 to 10.000 g/mol, determined according to DIN 55672 part 2 (year: 2008), and a grafted polylactic acid, wherein the polylactic acid is grafted with an acid-functional ethylenically unsaturated polymerizable monomer and/or an acid anhydride-functional ethylenically unsaturated polymerizable monomer and has a total amount of carboxylic acid groups and carboxylic acid anhydride groups between 10.0 and 60.0 mg KOH/g, determined according to DIN EN ISO 2114.
A display apparatus , such as a virtual reality display apparatus, an augmented reality display apparatus, or a mixed reality display apparatus, which is configured as a head mounted-type apparatus, a glasses-type apparatus, or a goggle-type apparatus, comprising: a light source configured to emit illumination light; a display panel configured to generate an image based on the illumination light; an image processor configured to provide image data to the display panel to cause the display panel to generate a first image (L1) and a second image (L2) which travel in different directions; and an optical system configured to separate the first image (L1) and the second image (L2) displayed on the display panel , characterized in that the image processor is further configured to provide the display panel with composite image data obtained by adding first image data (I1) to which a first phase profile (P1) is applied and second image data to which a second phase profile (P2) different from the first phase profile (P1) is applied, wherein the first phase profile (P1) and the second phase profile (P2) determine a direction in which the first and second image will travel, respectively. a light source configured to emit illumination light; a display panel configured to generate an image based on the illumination light; an image processor configured to provide image data to the display panel to cause the display panel to generate a first image (L1) and a second image (L2) which travel in different directions; and an optical system configured to separate the first image (L1) and the second image (L2) displayed on the display panel , characterized in that the image processor is further configured to provide the display panel with composite image data obtained by adding first image data (I1) to which a first phase profile (P1) is applied and second image data to which a second phase profile (P2) different from the first phase profile (P1) is applied, wherein the first phase profile (P1) and the second phase profile (P2) determine a direction in which the first and second image will travel, respectively.
A hydroengorged synthetic fiber structure having a pattern of fusion bonds, said structure having one of (i) a positive percentage fusion bond area of less than 10%, wherein said synthetic fiber structure after hydroengorgement exhibits an increased caliper relative to said fiber structure prior to hydroengorgement, and (ii) a percentage fusion bond area of at least 10%, wherein said bonding pattern of fusion bonds is anisotropic, wherein said synthetic fiber structure after hydroengorgement exhibits both an increased caliper and an increased softness relative to said nonwoven prior to hydroengorgement; wherein the fiber structure is subjected to applied water pressure within the range of 180 to 280 bar during hydroengorgement. (i) a positive percentage fusion bond area of less than 10%, wherein said synthetic fiber structure after hydroengorgement exhibits an increased caliper relative to said fiber structure prior to hydroengorgement, and (ii) a percentage fusion bond area of at least 10%, wherein said bonding pattern of fusion bonds is anisotropic, wherein said synthetic fiber structure after hydroengorgement exhibits both an increased caliper and an increased softness relative to said nonwoven prior to hydroengorgement;
Vehicle , in particular motor vehicle, with a luggage compartment which, as seen in the transverse direction of the vehicle (y direction), has oppositely arranged luggage compartment side panels fastened releasably to the body of the vehicle , and with a loading floor system assigned to the luggage compartment of the vehicle , wherein the loading floor system has at least in each case one receiving bracket which is mounted or can be mounted on the oppositely arranged luggage compartment side panels , and also at least one loading floor which, in the mounted state of the receiving brackets , is deposited or can be deposited thereon or is inserted or can be inserted therein, characterized in that the receiving brackets are mounted or can be mounted in the luggage compartment in such a manner that a first loading surface formed by the at least one loading floor , which is deposited or can be deposited on the receiving brackets or is inserted or can be inserted therein, when a backrest of a rear seat bench of the vehicle is folded over towards the front of the vehicle, the rear-side surface of which forms a second loading surface in the folded-over state of the backrest , is arranged in the plane of said second loading surface.
Pressure-sensitive adhesive comprising - at least one poly(meth)acrylate and - at least one oligomer having a weight-average molecular weight M w , measured by measurement method 1b as described herein, of 1500 to 5000 g/mol and a polydispersity D of ≤ 2, the construction of which derives from a monomer composition consisting of ∘ at least 50 wt%, based on the total weight of the monomer composition, of a mixture of a) methyl methacrylate and b) cyclohexyl methacrylate; ∘ optionally c) one or more further radically polymerizable monomers, and at least one compound containing an -SH group. - at least one poly(meth)acrylate and - at least one oligomer having a weight-average molecular weight M w , measured by measurement method 1b as described herein, of 1500 to 5000 g/mol and a polydispersity D of ≤ 2, the construction of which derives from a monomer composition consisting of ∘ at least 50 wt%, based on the total weight of the monomer composition, of a mixture of a) methyl methacrylate and b) cyclohexyl methacrylate; ∘ optionally c) one or more further radically polymerizable monomers, and ∘ at least 50 wt%, based on the total weight of the monomer composition, of a mixture of a) methyl methacrylate and b) cyclohexyl methacrylate; a) methyl methacrylate and b) cyclohexyl methacrylate; ∘ optionally c) one or more further radically polymerizable monomers, and
A moving robot comprising: a main body ; a driving unit configured to move the main body ; an image acquisition unit configured to obtain an image around the main body ; a communication unit configured to communicate with at least one light device disposed in a driving area; and a control unit configured to control the driving unit so that the main body moves within the driving area, and to perform turning on or off of the light device through the communication unit , characterized in that : while moving the main body to a location where illuminance is changed, the control unit is configured to determine a location of the light device based on an illuminance change in the image obtained by the image acquisition unit . a main body ; a driving unit configured to move the main body ; an image acquisition unit configured to obtain an image around the main body ; a communication unit configured to communicate with at least one light device disposed in a driving area; and a control unit configured to control the driving unit so that the main body moves within the driving area, and to perform turning on or off of the light device through the communication unit , characterized in that : while moving the main body to a location where illuminance is changed, the control unit is configured to determine a location of the light device based on an illuminance change in the image obtained by the image acquisition unit .
Device for transporting preforms of containers made of plastic, of the type of preforms that are intended to be transformed into containers by blow-moulding or stretch-blow-moulding, which preforms are made of plastic and each have a tubular wall defining a body and a neck that are separated by a collar that protrudes radially from the wall , said device comprising an endless circulating element that has an external face and bears a series of brushes that protrude from the external face , which are able to come into contact with the preforms so as to drive them by friction along a path (T), the device comprising a pair of rails that are spaced apart from one another, which jointly define at least a part of the path (T) of the preforms , these rails having coplanar bearing faces for the suspension, by their collar , of the preforms oriented neck up, the belt having an internal face opposite the external face , said device also comprising a neck guide that extends vertically in line with the rails at a distance therefrom that is greater than or equal to a height of the neck of the preforms , the guiding of the preforms by the neck guide preventing the collars of two successive preforms from overlapping, and a lateral guide on which the circulating element bears via the internal face, over at least a part of the path (T), characterized in that the external face of the belt forms a succession of crenellations , each crenellation bearing a brush , and in that a horizontal part of the guide is provided with oblong holes into which screws are introduced for fastening the guide to the plate so as to transversely adjust the position of the guide .
A high pressure polymerisation process for the preparation of polyethylene by free radical polymerisation in supercritical ethylene characterised in that the polymerisation process takes place at temperatures in the reaction zone of the high pressure reactor between 150 0 C and 330 0 C and at reactor inlet pressures between 150 MPa and 400 MPa in the presence of a cobalt containing complex according to Formula (I): wherein y 1 , y 2 , y 3 and y 4 may, independently of one another be the same or different, H, (C 1 -C 20 ) alkyl, (C 5 -C 20 ) cycloalkyl, (C 6 -C 10 ) aryl radical, phenyl or hydroxyphenyl.
A method for locating a tag by a sensor network, the sensor network comprising a reference anchor and a plurality of anchors synchronised with said reference anchor, the reference anchor emitting a Ultra Wide Band, UWB, signal, comprising first beacons at regular intervals, the interval between two first successive beacons defining a first time frame comprising elementary time intervals during which the sensors and the tag can access to UWB channel, said method further comprising: - transmitting by the reference anchor a narrowband signal on an auxiliary channel, the narrowband signal comprises second beacons at regular intervals, the interval between two second successive beacons defining a second time frame, the second beacons being synchronous with the first beacons, the reference anchor transmitting during the second time frame an elementary interval index to said tag; - receiving by said tag said index on the auxiliary channel and transmitting by the same a clap message, that is a pulse or a brief message, on the UWB channel during an elementary interval associated with said index; - receiving by said anchors the clap message and determining time differences of arrival of this message to the different anchors; - calculating the position of the tag from the time differences of arrival thus determined. - transmitting by the reference anchor a narrowband signal on an auxiliary channel, the narrowband signal comprises second beacons at regular intervals, the interval between two second successive beacons defining a second time frame, the second beacons being synchronous with the first beacons, the reference anchor transmitting during the second time frame an elementary interval index to said tag; - receiving by said tag said index on the auxiliary channel and transmitting by the same a clap message, that is a pulse or a brief message, on the UWB channel during an elementary interval associated with said index; - receiving by said anchors the clap message and determining time differences of arrival of this message to the different anchors; - calculating the position of the tag from the time differences of arrival thus determined.
A reflective microstrip tuning circuit , comprising: a port for receiving an incident signal from another circuit ; one or more cascaded couplers (26a-c) configured to split the incident signal; and a plurality of adjustable tuning arms (28a-d) that are configured to receive the split incident signal; wherein the one or more cascaded couplers(26a-c) are configured to split the incident signal such that power associated with the incident signal is divided unequally among the plurality of adjustable tuning arms (28a-d), such that the dividing of the power results in different weighting effects of the adjustment of each tuning arm (28a-d); wherein each of the plurality of tuning arms (28a-d) is configured to reflect at least a portion of the split signal in each tuning arm (28a-d) back to the one or more cascaded couplers (26a-c); wherein the one or more cascaded couplers (26a-c) are configured to receive the reflected split signal from the plurality of tuning arms (28a-d) and combine the reflected split signal into a combined reflected signal; and wherein the tuning circuit further includes one or more terminators (36a-c) operatively coupled to the one or more cascaded couplers (26a-c), the one or more terminators (36a-c) configured to dissipate power in the tuning circuit based on a difference between power associated with the incident signal and power associated with the combined reflected signal. a port for receiving an incident signal from another circuit ; one or more cascaded couplers (26a-c) configured to split the incident signal; and a plurality of adjustable tuning arms (28a-d) that are configured to receive the split incident signal; wherein the one or more cascaded couplers(26a-c) are configured to split the incident signal such that power associated with the incident signal is divided unequally among the plurality of adjustable tuning arms (28a-d), such that the dividing of the power results in different weighting effects of the adjustment of each tuning arm (28a-d); wherein each of the plurality of tuning arms (28a-d) is configured to reflect at least a portion of the split signal in each tuning arm (28a-d) back to the one or more cascaded couplers (26a-c); wherein the one or more cascaded couplers (26a-c) are configured to receive the reflected split signal from the plurality of tuning arms (28a-d) and combine the reflected split signal into a combined reflected signal; and wherein the tuning circuit further includes one or more terminators (36a-c) operatively coupled to the one or more cascaded couplers (26a-c), the one or more terminators (36a-c) configured to dissipate power in the tuning circuit based on a difference between power associated with the incident signal and power associated with the combined reflected signal.