mhurhangee/patent-ind-claim-en huggingface dataset:
A device for delivery of a bioactive agent across a dermal barrier, the device comprising: a microneedle and a plurality of nanostructures and microstructures located on a surface of the microneedle , the nanostructures and microstructures being arranged in a pattern, wherein at least a portion of the microstructures have a cross-sectional dimension of greater than about 500 nanometers and less than about 10 micrometers and a height of from about 20 nanometers to about 1 micrometer, and wherein at least a portion of the nanostructures have a cross-sectional dimension of less than about 500 nanometers and greater than about 5 nanometers and an aspect ratio of from about 0.2 to about 5, wherein the microneedle further contains a channel; and a reservoir (112;306) that is in fluid communication with the channel of the microneedle and that contains a composition having a viscosity of greater than about 5 centipoise and comprising a bioactive agent. a microneedle and a plurality of nanostructures and microstructures located on a surface of the microneedle , the nanostructures and microstructures being arranged in a pattern, wherein at least a portion of the microstructures have a cross-sectional dimension of greater than about 500 nanometers and less than about 10 micrometers and a height of from about 20 nanometers to about 1 micrometer, and wherein at least a portion of the nanostructures have a cross-sectional dimension of less than about 500 nanometers and greater than about 5 nanometers and an aspect ratio of from about 0.2 to about 5, wherein the microneedle further contains a channel; and a reservoir (112;306) that is in fluid communication with the channel of the microneedle and that contains a composition having a viscosity of greater than about 5 centipoise and comprising a bioactive agent.
Contact element , in the form of an integral punched and bent part , having a latching element for securing the contact element in a contact chamber of a plug-in connector, furthermore having a first contact spring , which at least partially extends into a receiving region of the contact element for making contact with a mating element introduced into the receiving region , wherein a second contact spring , which is likewise formed from the punched and bent part , is assigned to the contact spring in a manner lying opposite the latter, wherein the contact element in its axial course of the receiving region , has at least one projection for the mating contact, characterized in that the at least one projection is provided in the receiving region upstream and/or downstream of the contact springs .
Layer system comprising a metallic substrate only one MCrX layer as lowest layer on the substrate , wherein X is at least yttrium (Y) and/or silicon (Si) and/or aluminum (Al) and/or boron (B), wherein M is nickel (Ni) and/or cobalt (Co) and a continuous α-chromium-rich layer on or in the one MCrX layer , wherein the lowest MCrX layer is present on the substrate and under the continuous α-chromium-rich layer , wherein a first outer MCrX'' layer is present on the continuous α-chromium rich layer , wherein X" is at least Y, Si and/or B.
Capsule for preparing infusion or soluble beverages, in particular coffee or milk or chocolate, comprising at least one containing body made of a compostable and/or biodegradable material having at least one base and at least one opening opposite to said base and adapted to be closed by at least one cover , said containing body comprising at least one internal volume (V) adapted to contain at least one substance to be infused or solubilized, said cover being made by overlapping at least one first layer composed of at least one compostable and/or biodegradabile polyester and at least one second, insulating inert layer made of a compostable and/or biodegradable material, wherein said first layer is interposed between said second layer and said internal volume (V), characterized in that said compostable and/or biodegradable material of said second layer is at least one fibrous material, said fibrous material is paper and, more preferably, pure cellulose paper, and said first layer and said second layer are mutually connected through at least one thermowelding interface , without the use of any type of external gluing substance, consequently making also the cover of the capsule wholly compostable and/or biodegradable, the second, insulating inert layer , during the common thermowelding steps of the cover onto a perimeter edge of the opening of the capsule being interposed between the first, thermally sensitive layer , and a welding punch, consequently avoiding any chance of gluing of the first layer .
A wet cooling tower for cooling water used in a process, wherein the wet cooling tower has a fan deck , a fan cylinder positioned upon the fan deck, a fan for producing an airflow that cools the water, the fan being located within the fan cylinder and comprising a hub to which are connected a plurality of fan blades , a basin for collecting cooled water, and a fan drive system for causing rotation of the fan, characterized in that the fan drive system is a direct-drive system comprising: a high torque variable speed permanent magnet motor having a maximum output of 133 HP/100 kW and comprising a rotatable shaft that is directly connected to the hub , the permanent magnet motor having a rotational speed between 0 RPM and 250 RPM; and a variable frequency drive device in electrical signal communication with the permanent magnet motor to control the rotational speed of the permanent magnet motor , the variable frequency drive device comprising: a variable frequency controller that has an input for receiving AC power and an output for providing electrical signals that control the operational speed of the permanent magnet motor , and a user interface in electronic data signal communication with the variable frequency controller to allow a user to input motor speed control data, wherein the variable frequency drive device and variable speed permanent magnet motor are supported by the fan deck . a variable frequency controller that has an input for receiving AC power and an output for providing electrical signals that control the operational speed of the permanent magnet motor , and a user interface in electronic data signal communication with the variable frequency controller to allow a user to input motor speed control data, wherein the variable frequency drive device and variable speed permanent magnet motor are supported by the fan deck .
A cold mirror suitable for a head-up display apparatus , the cold mirror including a dielectric multi-layer configured to reflect an image displayed on a display to make a reflected image of the image be viewed by a viewer while letting infrared light penetrate, wherein, when a difference between an amount of variation in phase of p-polarized light reflected by the cold mirror between before and after the reflection and an amount of variation in phase of s-polarized light reflected by the cold mirror between before and after the reflection is defined as a reflection phase difference, a relationship between an incident wavelength and the reflection phase difference is set so that the reflection phase difference falls within a range of 180±60 degrees for an entire visible wavelength range of 420 to 680 nm and for an incident angle of light falling on the cold mirror of 30 degrees.
A method , comprising: receiving, by a network node from a User Equipment, UE, device , a Session Initiation Protocol, SIP, request message via a first IP network; transmitting a SIP response message by the network node via the first IP network, the SIP response message being responsive to the SIP request message and including at least one message body content in a body of the SIP response message, the SIP response message further including a content type indicator for the at least one message body content; and wherein the UE device provides , by one or more processors, a treatment for the at least one message body content based on a value of the content type indicator independent of an absence of a content disposition indicator or a value of a content disposition indicator, the treatment, applied by the UE device, comprising one of: (i) performing an Emergency Services, ES, call effectuated via a circuit-switched network; or (ii) performing a registration and an ES call effectuated via an IP network, wherein the registration involves sending a SIP REGISTER message. receiving, by a network node from a User Equipment, UE, device , a Session Initiation Protocol, SIP, request message via a first IP network; transmitting a SIP response message by the network node via the first IP network, the SIP response message being responsive to the SIP request message and including at least one message body content in a body of the SIP response message, the SIP response message further including a content type indicator for the at least one message body content; and wherein the UE device provides , by one or more processors, a treatment for the at least one message body content based on a value of the content type indicator independent of an absence of a content disposition indicator or a value of a content disposition indicator, the treatment, applied by the UE device, comprising one of: (i) performing an Emergency Services, ES, call effectuated via a circuit-switched network; or (ii) performing a registration and an ES call effectuated via an IP network, wherein the registration involves sending a SIP REGISTER message.
A solid-state imaging device comprising: an imaging unit configured to capture a first captured image; a light emission controlling unit configured to control emission of light from a light emitting unit (361; 364) ; a decision unit configured to analyze the first captured image and to decide whether or not to transmit data on the basis of whether or not light emitted by the light emission unit (361; 364) is detected from within the first captured image; and a transmission controlling unit configured to control, when light emitted by the light emission unit (361; 364) is detected from within a first region of the first captured image, transmission of a second captured image or of data based on the second captured image, wherein the transmission controlling unit controls, when the emitted light is detected from the first region of the first captured image, transmission of a second region different from the first region of the first captured image or data based on the second region. an imaging unit configured to capture a first captured image; a light emission controlling unit configured to control emission of light from a light emitting unit (361; 364) ; a decision unit configured to analyze the first captured image and to decide whether or not to transmit data on the basis of whether or not light emitted by the light emission unit (361; 364) is detected from within the first captured image; and a transmission controlling unit configured to control, when light emitted by the light emission unit (361; 364) is detected from within a first region of the first captured image, transmission of a second captured image or of data based on the second captured image, wherein the transmission controlling unit controls, when the emitted light is detected from the first region of the first captured image, transmission of a second region different from the first region of the first captured image or data based on the second region.
Method for operating a washing machine having a container , a drum for receiving items of laundry , a drive motor for the drum , a sensor in the container for measuring a signal as a function of a composition of an aqueous liquid in the container , and a control facility , wherein following a washing phase, in a rinsing phase the signal is tracked in the rinsing liquid by means of the sensor, wherein in respect of the further embodiment of the rinsing phase, the signal is evaluated and the embodiment of the rinsing phase comprises the number of further rinsing steps and/or the quantity of water still to be used, characterised in that the sensor is an impedance sensor , the signal is a detergent concentration c ten and the temporal increase in the detergent concentration c ten is evaluated in respect of the further embodiment of the rinsing phase, wherein impedance signals are received and evaluated by means of the impedance sensor , by the impedance sensor being applied with electrical alternating voltage with varying frequencies and the impedance signals being evaluated in respect of the phase angle φ and the sum of the impedance in order to determine therefrom the detergent concentration c ten , and wherein the embodiment of the rinsing phase comprises the number of further rinsing steps and/or the quantity of water still to be used.
A flow reactor comprising a tubular reaction line , wherein the flow reactor further comprises an internal temperature measurement unit provided at one or more locations of the tubular reaction line, the internal temperature measurement unit comprises a thermometer with a temperature sensor , the temperature sensor is inserted into the tubular reaction line, the tubular reaction line is helical and comprises a straight flow channel in part of the tubular reaction line, the straight flow channel is substantially parallel to a helical axis of the helical tubular reaction line, and the internal temperature measurement unit is positioned in the straight flow channel. wherein the flow reactor further comprises an internal temperature measurement unit provided at one or more locations of the tubular reaction line, the internal temperature measurement unit comprises a thermometer with a temperature sensor , the temperature sensor is inserted into the tubular reaction line, the tubular reaction line is helical and comprises a straight flow channel in part of the tubular reaction line, the straight flow channel is substantially parallel to a helical axis of the helical tubular reaction line, and the internal temperature measurement unit is positioned in the straight flow channel.
A vector network analyzer, comprising: a control processor ; a receiver coupled with the control processor; switching circuitry coupled with the receiver; a radio frequency, RF, bridge coupled with the switching circuitry; a transmission line coupled with the RF bridge, wherein the transmission line is configured to be coupled with a load ; and a signal generator coupled with the RF bridge; wherein the RF bridge is configured to provide a plurality of reference signals (307a and 307b) to the switching circuitry. a control processor ; a receiver coupled with the control processor; switching circuitry coupled with the receiver; a radio frequency, RF, bridge coupled with the switching circuitry; a transmission line coupled with the RF bridge, wherein the transmission line is configured to be coupled with a load ; and a signal generator coupled with the RF bridge;
A non-aqueous secondary battery comprising an electrolyte solution that contains a lithium salt and a non-aqueous solvent, a positive electrode, and a negative electrode, wherein a basis weight of a positive-electrode active material layer included in the positive electrode is 26 to 60 mg/cm 2 , and, a basis weight of a negative-electrode active material layer included in the negative electrode is 12 to 27 mg/cm 2 , wherein the electrolyte solution has an ion conductivity at 25°C of 20 mS/cm or more, wherein the lithium salt is LiPF 6 , wherein the non-aqueous solvent comprises acetonitrile, wherein a content of acetonitrile in the non-aqueous solvent is 5 to 97 vol.%, wherein the positive electrode contains a metal oxide having lithium as the positive-electrode active material, wherein the negative electrode contains a carbon material as the negative-electrode active material.
High-voltage circuit breaker , comprising - two contact elements which are opposite one another and are movable relative to one another along a centre axis of the high-voltage circuit breaker, - an arc region which is provided between the two contact elements, - an auxiliary nozzle which at least partially surrounds one of the contact elements , - a main nozzle which at least partially surrounds the auxiliary nozzle, - a channel which connects the arc region to a blowout volume and has a first channel region , wherein the first channel region issues into the arc region and forms a stagnation point there in the mouth region, and - a further channel which runs between the auxiliary nozzle and a first of the two contact elements , wherein the further channel which runs between the auxiliary nozzle and the first of the two contact elements is closed at the end side, characterized in that the distance (L1), measured in the direction of the centre axis , between the stagnation point and a narrowest point of the first contact element lies in the range of between 5 mm and 20 mm. - two contact elements which are opposite one another and are movable relative to one another along a centre axis of the high-voltage circuit breaker, - an arc region which is provided between the two contact elements, - an auxiliary nozzle which at least partially surrounds one of the contact elements , - a main nozzle which at least partially surrounds the auxiliary nozzle, - a channel which connects the arc region to a blowout volume and has a first channel region , wherein the first channel region issues into the arc region and forms a stagnation point there in the mouth region, and - a further channel which runs between the auxiliary nozzle and a first of the two contact elements , wherein the further channel which runs between the auxiliary nozzle and the first of the two contact elements is closed at the end side,
A modifier for polycarbonate, comprising: a graft polymer (A) having 30 to 80 parts by mass of a main chain composed of an ethylene-based polymer (a) and 70 to 20 parts by mass of a graft chain composed of a structural unit derived from a vinyl-based monomer (b), with a total amount of the main chain and the graft chain of 100 parts by mass; and a graft polymer (B) prepared by graft polymerization of a vinyl-based monomer to a rubbery polymer, at a mass ratio (A) : (B) = 9 to 98 : 91 to 2, wherein the vinyl-based monomer (b) comprises an aromatic vinyl monomer and a vinyl cyanide monomer, a ratio of an absorbance in the vicinity of 2238 cm -1 derived from the vinyl cyanide monomer (α2) to an absorbance in the vicinity of 1602 cm -1 derived from the aromatic vinyl monomer (α1), α2/α1, is 0.3 or more and 0.85 or less, and wherein the absorbance is measured by using a Fourier transform infrared spectrometer as described in the description. a graft polymer (A) having 30 to 80 parts by mass of a main chain composed of an ethylene-based polymer (a) and 70 to 20 parts by mass of a graft chain composed of a structural unit derived from a vinyl-based monomer (b), with a total amount of the main chain and the graft chain of 100 parts by mass; and a graft polymer (B) prepared by graft polymerization of a vinyl-based monomer to a rubbery polymer, at a mass ratio (A) : (B) = 9 to 98 : 91 to 2, wherein the vinyl-based monomer (b) comprises an aromatic vinyl monomer and a vinyl cyanide monomer, a ratio of an absorbance in the vicinity of 2238 cm -1 derived from the vinyl cyanide monomer (α2) to an absorbance in the vicinity of 1602 cm -1 derived from the aromatic vinyl monomer (α1), α2/α1, is 0.3 or more and 0.85 or less, and wherein the absorbance is measured by using a Fourier transform infrared spectrometer as described in the description.
An oxygen mask comprising: a mask body defining a cavity configured to be positioned over the mouth and nose of a patient, a corrugated oxygen storage tube directly coupled to a bottom half of the mask body and a vent port formed on the oxygen storage tube , wherein the vent port is formed on the oxygen storage tube in a manner that patient's exhaled gases are directed towards the vent port; wherein the length of the oxygen storage tube is adjustable to increase or decrease the storage volume of the oxygen storage tube; and the mask being characterized by - an oxygen port formed on the upper half of the mask body and - an annular aperture formed on the mask body to provide access to the patient's mouth. a mask body defining a cavity configured to be positioned over the mouth and nose of a patient, a corrugated oxygen storage tube directly coupled to a bottom half of the mask body and a vent port formed on the oxygen storage tube , wherein the vent port is formed on the oxygen storage tube in a manner that patient's exhaled gases are directed towards the vent port; wherein the length of the oxygen storage tube is adjustable to increase or decrease the storage volume of the oxygen storage tube; and the mask being characterized by - an oxygen port formed on the upper half of the mask body and - an annular aperture formed on the mask body to provide access to the patient's mouth. - an oxygen port formed on the upper half of the mask body and - an annular aperture formed on the mask body to provide access to the patient's mouth.
A fuel tank for a motor vehicle having a bottom wall , a top wall and a sidewall connecting the bottom wall with the top wall, and comprising a system for the reduction of slosh noises comprising a baffle having a main body standing between the bottom wall and the top wall of the fuel tank , wherein the baffle comprises at least one side wing extending from the main body , characterized in that the system comprises at least one damping rib formed on at least one wall and protruding inside the fuel tank , and in that the at least one side wing extends from the main body so as to slow down a flow of fuel and deflect the flow of fuel onto the at least one damping rib .
A method of preparing a thermoplastic elastomer foam, comprising: cooling a thermoplastic elastomer comprising from 0.1 wt% to 20 wt% of a semi-crystalline polymer to a temperature below the crystallization temperature of the semi-crystalline polymer, wherein crystalline regions of the semi-crystalline polymer phase separate from the thermoplastic elastomer, the polymer mixture being uniform such that the crystalline regions are uniformly distributed in the thermoplastic elastomer; incorporating a gaseous or supercritical blowing agent into the thermoplastic elastomer under pressure before, during, or after the crystalline regions phase separate; releasing the pressure at a temperature at which the crystalline regions are present; and foaming the thermoplastic elastomer to form the thermoplastic elastomer foam. cooling a thermoplastic elastomer comprising from 0.1 wt% to 20 wt% of a semi-crystalline polymer to a temperature below the crystallization temperature of the semi-crystalline polymer, wherein crystalline regions of the semi-crystalline polymer phase separate from the thermoplastic elastomer, the polymer mixture being uniform such that the crystalline regions are uniformly distributed in the thermoplastic elastomer; incorporating a gaseous or supercritical blowing agent into the thermoplastic elastomer under pressure before, during, or after the crystalline regions phase separate; releasing the pressure at a temperature at which the crystalline regions are present; and foaming the thermoplastic elastomer to form the thermoplastic elastomer foam.